KR102232181B1 - Construction site supervision and security system - Google Patents

Abstract

The present invention relates to a construction supervision and intrusion monitoring system. The technical problem to be solved is to provide the construction supervision and intrusion monitoring system, which shortens a writing task of a document in progress of a supervisor for each work type as much as possible without performing complex programming for each design standard of a construction site and, at the same time, automatically records data for determining whether the work is progressing normally without writing a document by a supervisor using his/her smartphone or PC. Accordingly, the construction supervision and intrusion monitoring system of the present invention installs a 360-degree camera and 360-degree light at the construction site, and remotely and manually enables a supervision image for each work type in a supervision data server to be automatically recorded using the 360-dgree camera while the 360-degree camera and 360-degree light monitor an intruder to generate image information at night.

Description

Construction supervision and intrusion monitoring system {CONSTRUCTION SITE SUPERVISION AND SECURITY SYSTEM}

The present invention relates to a construction supervision and intrusion monitoring system, and more particularly, it is installed at a construction site to automatically monitor the progress of the construction site during the day or to perform the supervision manually when necessary, but the video information on the supervision is provided. It relates to a construction supervision and intrusion monitoring system that allows interworking with the system and monitors chip particles in a building site at night.

Currently, at the construction site, we work on the site in the form of a resident or non-resident for supervision, and supervise whether each type of construction has progressed as designed or if a design change is necessary, and perform various supervision tasks on the status of human supervision and contract execution. It is done.

In this case, if the supervisor who visits the site is supervising the work type, he/she will take a picture of the work type at the site with a smartphone or camera he/she carries, and insert it into the document of the work type report using the photo taken. And so on.

Looking at the related prior literature, document 1, Korean Patent No. 10-1354688 (registered on January 27, 2014) relates to a method of supervising a construction site in which construction is conducted using a 3D virtual space modeling system. The process of taking a photorealistic image of the construction site through the camera of, and the process of detecting the vector shooting information of the captured construction site, the process of transmitting the photographed photorealistic image and the detected vector shooting information to the management server side, and the A process in which the management server detects a 3D model that matches the vector shooting information in the database of the 3D virtual space modeling system and detects each individual object in the detected 3D model. The process of generating matching information by matching individual objects of the 3D model, transferring the detected attribute value and matching information of the 3D model to the terminal, and the matching information transmitted by the terminal to the photorealistic image Including the process of activating each object on the real-life image by combining and displaying the property information of the corresponding object when a user input touching the objects is detected after outputting the real-life image in which each object is activated on the terminal screen. Done.

As such, Document 1 allows users to view the property values of each object on the screen simply by photographing the construction site and touching the photographed image, so that the construction status of the construction site can be more easily managed and supervised. In particular, users who supervise the construction site can easily perform the supervision work with only a portable terminal without any prior preparation for the construction site.

However, this document 1, as described above, facilitates the supervision work, but since the object must be created for each design standard of the construction site, the program design cost for each object occurs at each construction site, so it is too much. There is a problem that requires a lot of cost. In addition, since Document 1 requires supervision to design objects, additional service costs are incurred. In addition, in Document 1, when object creation is missed, a situation in which the supervisor unintentionally omits the supervision task may arise.

On the other hand, in the conventional supervision work, when the supervisor looks around the site with the constructor, the supervisor takes a picture of the construction for each type of work, and organizes the construction details on the construction date, location, type of work, and work details of the photographed picture. You have a duty to keep it.

In this case, the supervisor continues to take pictures for each type of work, but the current type of work has been shortened as technology advances, so the progress of work types varies from day to day, and accordingly, supervisors supervise at a fast supervision speed. There are many situations in which it is necessary to perform.

Here, the supervisor took a picture with a camera to take a picture for each type of work during supervision, but recently, as the photo-taking function of a smartphone has improved significantly, the supervisor often takes a picture with a smartphone carried by the supervisor. .

Accordingly, the supervisor must write a document to determine whether or not the work type is normally progressed by comparing the design details and the work type photos after taking pictures of each type of work with his smartphone.

At this time, in the case of creating a document comparing the design and the construction type photos, the supervisor must manually transfer the stored photos stored in his smartphone to a PC to perform the work. In this case, the supervisor with a long experience can judge whether the supervision is normally performed or not is very skilled and accurate based on his long work experience, but he is an unfamiliar generation in dealing with IT devices such as smartphones and PCs. In addition, smartphones and PCs have a structure in which applications and detailed functions are so complicated that even a person who is skilled in function manipulation can inevitably cause frequent mistakes.

For this reason, the work of creating documents for each type of work in the past has a structure in which mistakes in documents are inevitable even if the supervisor who handles smart phones or PCs is inevitable, and this acts as a factor that overloads the work of the supervisor. As time passes, the construction work is expected to be further shortened due to the specialized work using machines, so there is a trend that the supervisor's task of preparing work progress documents for each work type continues to increase.

Therefore, as in Document 1 above, it is possible to shorten the work process of the supervisor as much as possible without proceeding with complicated programming for each design standard of the construction site, and at the same time, the supervisor can use his smartphone or PC. There is a need for a technical solution to automatically record video data that determines whether or not the work is normally progressed without taking a picture.

In addition, depending on the site situation, it is difficult for the supervisor to enter the site. For example, the supervisor supervises various piping lines and facilities such as ventilation facilities, pipes or water pipes installed inside the building. A situation arises in which self-operation is stopped, or the order of construction is not a problem, but the work areas overlap each other and either side cannot perform the work.

For these reasons, there are cases where the supervisor is forced to stop the construction of contractors who are already entering the building. As a result, construction contractors are delayed, resulting in losses, which often lead to frequent quarrels among contractors.

Therefore, the supervisor needs a technical solution that allows the progress of each type of work to be grasped even if the supervisor is not directly in the field in order to photograph the progress of each type of work.

For this purpose, Korean Patent Registration No. 10-1844726 (2018.04.02. Announcement), which is Document 2, includes an RSS signal transmitting and receiving unit for transmitting and receiving an RSS signal; A camera that photographs surrounding images; A light emitting marking unit that has a constant diffusion rate per distance and irradiates an optical mark having at least a constant length in a vertical direction and a length component in a horizontal direction in the direction of an object to be supervised; And a control unit for controlling the operation of the RSS signal transmitting and receiving unit, the camera, and the light-emitting marking unit, wherein the control unit includes an RSS signal received from another drone and the strength of an RSS signal received from a separately provided RSS signal transmitting device. By comparing the relative position and distance between the other drone and the RSS signal transmission device, the first optical mark irradiated by the light-emitting marking unit to the object to be supervised, and the second light mark irradiated by the other drone to the object to be supervised. Disclosed is a drone for supervision of a building that controls the light-emitting marking unit and the camera to acquire a first image including an optical mark and the object to be supervised.

The drone for building supervision in Document 2 allows the user to easily photograph the construction site and match it with the stored information of the object to be supervised, and through this, simply touch the captured image to view the information of each object on the screen. By doing so, it provides the advantage of being able to more easily manage and supervise the construction status of the construction site, and also provides the advantage of securing image information about the supervision even if the supervisor is some distance away from the site.

However, since the drone for building supervision in Document 2 cannot photograph the inside of the building, it is difficult to obtain a picture of the inside of the building by type of work, and there is a problem with the limitation of the transmission and reception distance of wireless communication. In addition, the drone is limited in flight. Since there are many areas and requires a skilled operation function for maneuvering, there is a problem that it is difficult to be adopted as a practical supervision means.

Therefore, in order to film the progress of each type of work, the supervisor seeks a technical solution that allows the progress of each type of work to be grasped even when not directly at the site, but requires a technical solution to ensure that the image can be secured without using a drone. Do.

On the other hand, most of the construction sites prohibit night work except in some cases. This is because most of the construction works have materials and tools for construction work left on the site, so workers have an increased risk of accidents at night when it is difficult to secure visibility, and it is difficult for supervisors to perform supervision work. .

Therefore, in most construction sites at night, by closing the site, it prevents outsiders from entering the site. , There are many cases in which delinquent teenagers or homeless people secretly enter the construction site and damage the construction site through actions such as lighting a fire.

In order to monitor this, construction companies sometimes install surveillance cameras on the access road, but most construction sites do not install surveillance cameras, and in particular, it is impossible to monitor the interior of the building.

Accordingly, in Document 3, Registered Patent No. 10-1971007 (registered on April 22, 2019), a camera, speaker, microphone, antenna, etc. are provided in one device to enable overall monitoring of the construction site, as well as the construction site. Disclosed is a mobile construction site monitoring device and system that can be clamped and fixed to a structure suitable for installation, and can monitor overall work conditions in a space where many personnel and equipment are mixed, such as a construction site.

As described above, in Document 3, since the construction site is generally monitored using a camera, workers in the construction site can know the work details.

However, in Document 3, although it is possible to photograph, there is a problem in that photographing is impossible at night because the lighting does not come on inside the building.

Of course, it is possible to think of a method of installing lights throughout the building so that objects can be identified even at night, but if the entire building site is lit, not only electricity bills are wasted, but also residents' complaints due to the lights that illuminate the entire building. There is a problem that has been raised over and over again.

Therefore, in the case of installing and operating a camera in a building at a construction site at night, when an illegal intruder enters the construction site, the lighting function and the photographing function are performed only where the intruder is located, but only when an intruder is detected. There is a need for a technical solution to enable the function and the shooting function to be executed.

On the other hand, since Document 3 monitors the construction site, it is possible to monitor the construction site even if the supervisor does not have the site as described above.

However, since the monitoring device of Document 3 has a structure that it is difficult for the supervisor to carry, there is a problem in that it is difficult to take pictures for construction types such as close-up photography when taking pictures for each process.

Therefore, in the case of supervising work using a camera, it is possible to monitor the work situation by type of work even if the supervisor is not at the construction site by using the camera in normal times, and if the supervisor needs to take a photo, the supervisor can carry the camera and take a close-up photo. It is possible, but in the case of nighttime, a technical solution is needed to enable the security function to be implemented by interlocking with the lighting.

In addition, Document 3 has a problem in that it is difficult to know the deodorization situation when an intruder who illegally intrudes into the construction site at night and steals the camera, so technical solutions to prevent theft are therefore required. need.

Korean Patent Registration No. 10-1354688 Korean Patent Registration No. 10-1844726 Korean Patent Registration No. 10-1971007

The technical task of the present invention for solving the above problems is to allow the supervisor to shorten the work progress document creation task for each type of work as much as possible without having to proceed with complicated programming for each design standard of the construction site, and at the same time, the supervisor can use his smart phone. The goal is to provide a construction supervision and intrusion monitoring system that automatically records data that determines whether or not the work is in progress without creating documents with pictures taken using or PC.

In addition, another technical problem of the present invention is that when a camera is installed and operated in a building at a construction site at night, when an illegal intruder enters the construction site, the lighting function and the photographing function are executed only where the intruder is located, It is to provide a construction supervision and intrusion monitoring system in which lighting and photographing functions are executed only when an intruder is detected.

In addition, another technical problem of the present invention is that when supervising work is performed using a camera, it is possible to monitor the work status of each work type by using a camera in normal times, even if the supervisor is not at the construction site, and the supervisor is required to take a photo. It is to provide a construction supervision and intrusion monitoring system that enables close-up photography by carrying a camera.

In addition, another technical problem of the present invention is to provide a construction supervision and intrusion monitoring system so that an intruder who illegally intrudes into a construction site at night can be aware of the deprivation situation when the camera is stolen.

In order to achieve the object of the present invention as described above, the construction supervision and intrusion monitoring system according to an embodiment of the present invention is installed inside the building so as to photograph the entire inner space of the building in which construction is in progress. A 360 degree camera including a first motion sensor generating an object detection signal; A first camera support coupled with the 360 degree camera to support the 360 degree camera; 360-degree illumination including a second motion sensor that is installed inside the building so as to transmit the entire interior space of the building under construction, and generates an object detection signal when an object moves; A lighting support combined with the 360-degree lighting to support the 360-degree lighting; An ultra-wide angle camera installed outside the building to photograph the outside of the building in which the construction is in progress; Combined with the ultra-wide-angle camera to support the ultra-wide-angle camera, a plurality of tubular unit supports slide in a telescopic manner to determine the height of the ultra-wide-angle camera, and a plurality of them are placed outside the building in which the construction is underway according to the user's selection A second camera support that becomes; An infrared sensor installed on the lowest unit support among the plurality of unit supports and detecting trespassing particles; An exterior lighting installed outside the building to illuminate the exterior of the building in which the construction is in progress, and turned on when a trespassing intruder is detected according to a user's intention or by the infrared sensor; A remote supervision mode in which the 360-degree camera and the ultra-wide-angle camera receive and store the image captured, but remotely photograph the work progress of each work type from the inside of the building and store it as remote image information for each work type, and the 360-degree camera and the ultra-wide-angle camera A manual supervision mode in which the captured image is received and stored, but the progress of the work is manually photographed from the inside or outside of the building and stored as manual image information for each type of work, and the 360-degree camera interlocks with the 360-degree lighting to photograph objects. A security mode in which the 360-degree camera shoots an object according to the object detection signal detected by the first motion sensor while the 360-degree illumination irradiates light to a moving object according to the object detection signal detected by the second motion sensor. Supervision data server comprising a; And an administrator terminal controlling the supervision data server so that any one of the remote supervision mode, the manual supervision mode, and the security mode is executed in connection with the supervision data server.

In the construction supervision and intrusion monitoring system according to an embodiment of the present invention, the 360-degree camera includes a photographing module unit for converting optical information input through the first motion sensor and a lens into image information, and the first motion sensor. And a camera rotation mechanism that controls the image pickup direction of the photographing module part when the photographing module part is seated and rotates, controls the zoom function and the tilt function of the photographing module part, converts image information photographed by the photographing module part into image information, and converts the image information into image information. A camera control unit that controls rotational operation of the camera rotation mechanism unit according to any one of mode information selected from a remote supervision mode, a manual supervision mode, and a security mode set in the supervision data server, and the image information converted by the photographing module unit is supervised. A camera communication module unit that transmits to a data server and interworks with the supervision data server to receive input of any one mode information selected from a remote supervision mode, a manual supervision mode, and a security mode set in the supervision data server and transmits it to the camera control unit, It may be configured to include a component receiver for accommodating the camera control unit and the camera communication module, and a connection socket protruding from a lower portion of the component receiver.

In the construction supervision and intrusion monitoring system according to an embodiment of the present invention, the 360-degree camera receives GPS location information and is selected from a remote supervision mode, a manual supervision mode, and a security mode set in the camera control unit. It is formed further comprising a GPS receiver for receiving information, and the GPS receiver receives the mode information of the remote supervision mode or the security mode, monitors the GPS location information, and the GPS location information is out of a preset range. Theft risk information is generated in the camera communication module and transmitted to the supervision data server through the communication function of the camera communication module, and the supervision data server receiving the theft risk information transmits a text message or alarm information about the theft risk information to the manager terminal. can do.

In the construction supervision and intrusion monitoring system according to an embodiment of the present invention, the AC power is converted into a DC power and is electrically connected to the connection socket, so that the photographing module part, the camera rotation mechanism part, the camera control part, and the camera communication A power supply unit for supplying the DC power to the module unit, an AC connection cord unit electrically connected to the power supply unit, and accommodating the power supply unit so that the power supply unit is seated and coupled to the first camera support, wherein the connection socket is inserted. An AC adapter unit including a power supply cover body having a connection socket insertion region formed thereon, and a power side connection terminal disposed in the connection socket insertion region and electrically connected when the connection socket is inserted into the connection socket insertion region; And a battery part electrically connected to the connection socket to supply DC power to the photographing module part, the camera rotation mechanism part, the camera control part, and the camera communication module part, the battery part receiving the battery part, and the connection socket. A battery cover body that has a socket insertion region into which the socket is inserted and is detachably coupled to the part receiver, and a battery that is disposed in the socket insertion region and is electrically connected when the connection socket is inserted into the socket insertion region. An external battery including a connection terminal; It further includes, wherein the AC adapter unit and the external battery have the connection socket insertion region and the socket insertion region formed in the same shape, and are supplied with power by wire by the AC adapter unit or wirelessly by the external battery. By allowing the 360-degree camera to be supplied with power, when the 360-degree camera is fixed and used, power is continuously supplied from the AC adapter to be driven, and when the 360-degree camera is carried and used, power is continuously supplied from the external battery. It may be formed so as to be driven so that it can be used for fixed use or for portable use.

In the construction supervision and intrusion monitoring system according to an embodiment of the present invention, a signal cable electrically connecting the manager terminal and the 360 degree camera; It further includes, wherein the manager terminal is installed a supervision app for setting the remote supervision mode, the manual supervision mode, and the security mode in the supervision data server, and the supervision app is executed to proceed with the manual supervision mode. In this case, the image information captured by the 360-degree camera may be transmitted to the 360-degree camera and displayed through the signal cable, and the shooting direction of the 360-degree camera may be manually changed by the supervision app.

In the construction supervision and intrusion monitoring system according to an embodiment of the present invention, the plurality of second camera supports are installed with different heights according to the user's selection, and are formed by virtually connecting adjacent second camera supports. The area of the closed figure may include the area of the building in which the construction is in progress.

In the construction supervision and intrusion monitoring system according to an embodiment of the present invention, the infrared sensor includes: a light-emitting unit installed on any one second camera support to generate and emit infrared rays; It may include; a light receiving unit installed on a second camera support adjacent to the one of the second camera support and receiving the infrared radiation emitted from the light emitting unit.

In the construction supervision and intrusion monitoring system according to an embodiment of the present invention, a plurality of light emitting units and a plurality of light receiving units may be alternately disposed in the second camera support along the longitudinal direction of the second camera support.

In the construction supervision and intrusion monitoring system according to an embodiment of the present invention, the unit support located at the bottom of the second camera support, the inner support of the tubular shape; And a plurality of outer supports rotatably wrapped around the outer side of the inner support, and each of the plurality of outer supports may have any one or more of the light-emitting unit or the light-receiving unit installed thereon.

In the construction supervision and intrusion monitoring system according to an embodiment of the present invention, the outer lighting may be turned on by selecting a first and secondly arranged lighting from a position where the trespassing intruder is detected.

In the construction supervision and intrusion monitoring system according to an embodiment of the present invention, an even number of the plurality of second camera supports may be installed, and an ultra wide-angle camera and an exterior lighting may be alternately installed on the second camera support.

In the construction supervision and intrusion monitoring system according to an embodiment of the present invention, the second camera support is installed on a part of an outer surface such that the outer lighting is slidable or fixed, and is capable of being electrically connected to the outer lighting. 1 rail; further comprising, through an inner space of the unit support, it is possible to supply current to the first rail or the outer lighting from an external power source.

In the construction supervision and intrusion monitoring system according to an embodiment of the present invention, an outer lighting support provided with a second rail that is installed on a part of an outer surface such that the outer lighting is slidable or fixed, and which can be electrically connected to the outer lighting It may further include;

In the construction supervision and intrusion monitoring system according to an embodiment of the present invention, the outer lighting support may at least partially contact the second camera support and may be fixed to the second camera support by a fixing means.

In the construction supervision and intrusion monitoring system according to an embodiment of the present invention, the outer lighting support and the second camera support may be alternately disposed.

In order to achieve the object of the present invention as described above, the construction supervision and intrusion monitoring system driving method according to an embodiment of the present invention supervises the camera ID of the 360 degree camera while the supervisor runs the supervision app of the administrator terminal. Transmits to the data server, and transmits the work contents for each construction district work type according to the camera ID input from the supervision data server to the supervision app of the manager terminal so that the work contents for each construction district work type are displayed on the screen of the supervision app, but the supervisor is the manager A construction district construction type content input step of inputting or correcting the work contents for each construction district construction type using a terminal; 360 degrees in which the supervisor arranges to be positioned at a certain height with the 360 degree camera attached to the first camera support inside the construction site where supervision is performed, and the 360 degree lights are placed at a certain height in the condition that the lighting support is combined. Camera and 360 degree lighting arrangement step; With the supervisor running the supervision app on the supervisor's terminal, if the supervisor touches the remote supervision mode icon on the touch panel of the supervisor's terminal among the preset program icons of the supervisor app, it switches to the screen for selecting the remote supervision mode. Supervision mode is executed, and if the supervisor touches the manual supervision mode icon among the preset program icons of the supervision app on the touch panel of the manager terminal, the screen for selecting the manual supervision mode is switched to the manual supervision mode. , When the supervisor touches the security mode icon among preset program icons of the supervision app on the touch panel of the manager terminal, the supervision mode selection step is switched to a screen for selecting the security mode to execute the security mode; In the supervision mode selection step, when the supervisor runs the supervision app of the supervisor terminal and touches the remote supervision mode icon on the touch panel of the supervision app among preset program icons of the supervision app, the 360-degree camera takes a picture. Thus, the image information recorded in the supervision data server is input from the supervision data server to be output on the screen of the manager terminal, and the image information of the 360 degree camera output to the manager terminal drags the touch panel screen of the manager terminal in one direction. A remote supervision step of allowing the image information to be recorded in the supervision data server in a DB format while changing the photographing direction of the 360 degree camera in proportion to the dragged direction and distance in the case of a drag; In the supervision mode selection step, when the supervisor runs the supervision app of the supervisor terminal and touches the manual supervision mode icon on the touch panel of the supervision app among preset program icons of the supervision app, the 360-degree camera is photographed. A manual supervision step of recording the image information photographed by the 360-degree camera in the supervision data server in DB format while the video information is output to the screen of the manager terminal through a signal cable; And, in the supervisory mode selection step, when the supervisor runs the supervisory app of the supervisory terminal and touches the security mode icon on the touch panel of the supervisory app among preset program icons of the supervisory app, start information of the security mode. Is transmitted to the supervision data server, and the supervision data server transmits information on the execution of the security mode with a 360 degree camera and 360 degree illumination through the camera communication module unit, and each of the 360 degree camera and the 360 degree illumination is connected to the first motion sensor. The second motion sensor continuously monitors people who invade around the construction site, and when a person invades the construction site, each object detection signal is generated, and when the object detection signal is generated, the lighting control unit of the 360-degree lighting As a result, the light-emitting module is turned on to illuminate the surroundings, but the lighting rotation mechanism rotates toward the direction in which the second motion sensor detects the object so that the light is irradiated toward the moving object, tracking the moving object, and irradiating the light. 1, a security step of generating image information while tracking an object moving by a motion sensor and a camera rotating mechanism and transmitting it to the supervision data server.

In the method of driving the construction supervision and intrusion monitoring system according to an embodiment of the present invention, the GPS receiver of the 360-degree camera unit is driven during the execution of the security step to continuously receive the location information of the 360-degree camera so that the location information is stored. When the location information is changed, theft risk information is generated to the supervision data server through the camera communication module unit, and the theft risk information is generated by the supervision data server receiving the theft risk information. Theft prevention step of transmitting a text message or alarm information for the theft risk information to the administrator terminal; may be configured to further include.

In a method for driving a construction supervision and intrusion monitoring system according to an embodiment of the present invention, the 360-degree camera includes a photographing module unit for converting optical information input through the first motion sensor and lens into image information, and the first motion. The sensor and the photographing module part are seated, and the camera rotation mechanism part that adjusts the photographing direction of the photographing module part when rotating, the zoom function and the tilt function of the photographing module part are controlled, and the image information photographed by the photographing module part is converted into image information. A camera control unit for controlling rotational driving of the camera rotation mechanism unit according to any one of mode information selected from a remote supervision mode, a manual supervision mode, and a security mode set in the supervision data server, and the image information converted by the photographing module unit. A camera communication module unit that transmits to the supervision data server and interlocks with the supervision data server to receive information on any one of a remote supervision mode, a manual supervision mode, and a security mode set in the supervision data server and transmits it to the camera control unit. , Any selected from a remote supervision mode, a manual supervision mode, and a security mode set in the camera control unit by receiving input of the camera control unit and the parts receiving unit accommodating the camera communication module, a connection socket protruding from the lower part of the parts receiving unit, and GPS location information. It is formed including a GPS receiver that receives one mode information, and in the manual supervision step, the 360-degree camera is separated from the AC adapter while the 360-degree camera is fixedly used by receiving power from the AC adapter. After that, the 360-degree camera and the external battery are combined, and the 360-degree camera is driven by receiving power from the external battery, thereby converting to a portable use state.

In the present invention, since the 360-degree camera installed at the construction site and the ultra-wide-angle camera interlock with the supervision data server to automatically store pictures for supervision by construction type, the supervisor's work progress document for each construction type without having to proceed with complicated programming for each design standard of the construction site. In addition to shortening the work of writing the project as much as possible, the supervisor can automatically record the data that determines whether the work is in progress without creating a document with a picture taken using his smartphone or PC. It works.

In addition, in the present invention, the 360-degree camera, 360-degree lighting, and ultra-wide-angle camera track and photograph the location of an intruder who illegally intruded into a construction site at night, but it is operated only when an intruder is detected, so the lighting function only functions where the intruder is The overshooting function is executed, but the lighting function and the photographing function are executed only when an intruder is detected, thereby reducing waste of electricity and preventing civil complaints due to lighting.

In addition, the present invention makes it possible to monitor the work situation for each work type using a 360-degree camera and an ultra-wide angle camera in a remote supervision mode, and if necessary, a supervisor can carry a 360-degree camera in a manual supervision mode to take a close-up picture of the work situation for each work type. Therefore, even if the supervisor is not at the site, there is an effect of remotely securing image information about the work situation for each type of work, or when the supervisor is at the site, it is possible to secure a proximity image by directly carrying a 360-degree camera.

In addition, in the present invention, when the security mode is executed and the intruder is automatically tracked and monitored with a 360-degree camera and 360-degree lighting, the GPS receiver and supervision data are used to detect the situation in which an intruder who illegally invades a construction site at night steals the camera. Since the administrator can know by the server, it is possible to know the situation of theft, and there is an effect that it is possible to easily establish follow-up countermeasures accordingly.

1 is a block diagram of a construction supervision and intrusion monitoring system according to an embodiment of the present invention.
FIG. 2 is a side view of an enlarged 360-degree camera shown in FIG. 1;
FIG. 3 is a side view of an enlarged 360-degree illumination shown in FIG. 1.
4 is a side view of a state in which an external battery is coupled to the 360-degree camera shown in FIG. 1.
5 is a schematic configuration diagram of a construction supervision and intrusion monitoring system according to an embodiment of the present invention.
6 is a schematic plan view of a construction supervision and intrusion monitoring system according to an embodiment of the present invention.
7 is a schematic use state diagram of the construction supervision and intrusion monitoring system according to an embodiment of the present invention of FIG.
8 is an excerpt of a part of FIG. 7.
9 is a longitudinal cross-sectional view of a unit support, which is the lowest end of a second camera support, in the construction supervision and intrusion monitoring system according to an embodiment of the present invention.
10 is a side view schematically showing a state in which outer lighting is installed on a second camera support in the construction supervision and intrusion monitoring system according to an embodiment of the present invention.
11A and 11B are a side view and a front view schematically showing a state in which exterior lighting is installed on the first rail of the second camera support in the construction supervision and intrusion monitoring system according to an embodiment of the present invention. .
12 is a plan view schematically showing a state in which an ultra wide angle camera and exterior lighting are alternately installed in the construction supervision and intrusion monitoring system according to an embodiment of the present invention.
13 is a side view schematically showing a state in which the outer lighting support is fixed to the second camera support in the construction supervision and intrusion monitoring system according to an embodiment of the present invention.
14 is an initial screen of a supervisory app in a state in which the supervisory app is executed in the manager terminal shown in FIG. 1.
15 is a screen in a state in which the remote supervision mode of the supervision app shown in FIG. 5 is executed.
16 is a screen in a state in which the manual supervision mode of the supervision app shown in FIG. 5 is executed.
17 is a screen showing a state in which the security mode of the supervision app shown in FIG. 5 is executed.

Hereinafter, embodiments for carrying out the present invention will be described with reference to the accompanying drawings. In this case, when it is said that a certain part "includes" a certain component throughout the specification, this is unless otherwise stated. It is considered to mean that other components may be further included rather than controlling other components. In addition, terms such as "... unit" described in the specification mean a unit that processes at least one function or operation when describing electronic hardware or electronic software, and when describing a mechanical device, one part, function, It is considered to mean a use, point or drive element. In addition, hereinafter, the same or similar configurations will be described using the same reference numerals, and overlapping descriptions of the same components will be omitted.

In addition, the terminal exemplified in the following specification is an electronic device, and is defined as a device capable of communication including a central processing unit, a main memory device, an auxiliary memory device, and a display device, such as a computer, a notebook computer, and a smart phone. It is defined as an application or a set of computer programs designed to perform a specific task on an electronic device such as an app. In this case, the application program is an operating system such as Windows, iOS, Android, Linux, etc. It is defined as running under the graphic interface environment of.

1 is a configuration diagram of a construction supervision and intrusion monitoring system according to an embodiment of the present invention, FIG. 2 is a side view of a state in which the 360-degree camera shown in FIG. 1 is enlarged, and FIG. 3 is A side view of a state in which the 360-degree illumination is enlarged, and FIG. 4 is a side view of a state in which an external battery is coupled to the 360-degree camera shown in FIG. 1, and FIG. 5 is a construction supervision and intrusion monitoring according to an embodiment of the present invention. A schematic configuration diagram of the system, FIG. 6 is a schematic plan view of a construction supervision and intrusion monitoring system according to an embodiment of the present invention, and FIG. 7 is a construction supervision and intrusion monitoring according to an embodiment of the present invention of FIG. A schematic diagram of a state of use of the system, and FIG. 8 is an excerpt of a part of FIG. 7, and FIG. 9 is a bottom of the second camera support in the construction supervision and intrusion monitoring system according to an embodiment of the present invention. It is a longitudinal sectional view of the unit support, and FIG. 10 is a side view schematically showing a state in which outer lighting is installed on a second camera support in the construction supervision and intrusion monitoring system according to an embodiment of the present invention, and FIG. 11(a) And (b) is a side view and a front view schematically showing a state in which outer lighting is installed on the first rail of the second camera support in the construction supervision and intrusion monitoring system according to an embodiment of the present invention, and FIG. 12 is the present invention In the construction supervision and intrusion monitoring system according to an embodiment of, is a plan view schematically showing a state in which ultra-wide angle cameras and exterior lighting are alternately installed, and FIG. 13 is a construction supervision and intrusion monitoring system according to an embodiment of the present invention. In this case, it is a side view schematically showing a state in which the outer lighting support is fixed to the second camera support, and FIG. 14 is an initial screen in a state in which the supervisory app is executed on the manager terminal shown in FIG. 1, and FIG. 15 is shown in FIG. Is a screen in a state in which the remote supervision mode of the supervision app is executed, FIG. 16 is a screen in the state in which the manual supervision mode of the supervision app shown in FIG. 5 is executed, and FIG. 17 is a security mode of the supervision app shown in FIG. This is the screen where is executed.

First, hereinafter, a configuration of a construction supervision and intrusion monitoring system according to an embodiment of the present invention will be described with reference to the drawings.

1 to 17, the construction supervision and intrusion monitoring system according to an embodiment of the present invention is a 360-degree camera (1), a first camera support (2), a 360-degree lighting (3), an illumination support (4), a supervision data server 5, a manager terminal 6, an ultra-wide angle camera 10, a second camera support 11, an infrared sensor 13 and an exterior lighting 14. In addition, the construction supervision and intrusion monitoring system according to an embodiment of the present invention may further include an AC adapter unit 7, an external battery 8, and a hanging strap 9.

The 360-degree camera 1 is installed inside the building to take a picture of the entire inner space of the building under construction. In this case, the 360 degree camera 1 is mounted and driven on the first camera support 2 to be described later.

Such a 360-degree camera (1) includes a first motion sensor (1a), a photographing module (1b), a camera rotation mechanism (1c), a camera control unit (1d), a camera communication module unit (1e), and a component receptor (1f). And, it is configured to include a connection socket (1g), is configured to further include a GPS receiver (1h).

The first motion sensor 1a is composed of a sensor such as an infrared sensor, and generates an object detection signal when an object moves. Here, the first motion sensor (1a) is composed of a plurality of, each of the plurality of the sensing direction is configured to be different from each other so as to detect an area for the entire direction of the 360-degree camera (1), the 360-degree camera (1) ) Can detect the movement of the entire area a certain distance away from the installed place. In addition, the first motion sensor 1a is fixedly coupled to the periphery of the photographing module unit 1b, which will be described later, so that the position in the relative direction according to the photographing direction of the photographing module unit 1b when detecting a moving object. Can be detected.

The photographing module unit 1b converts optical information input through the lens into image information. In order to convert the optical information input to the lens into image information, the photographing module unit 1b receives optical information from a lens that adjusts focus by an actuator and transmits the optical information to the image sensor. It is converted into electrical signals, which are information. In this case, the photographing module unit 1b may have a zoom function and a tilt function.

The camera rotation mechanism unit 1c has a first motion sensor 1a and an image capturing module unit 1b mounted thereon, and adjusts the image capturing direction of the capturing module unit 1b when rotating. In this case, the camera rotation mechanism unit (1c) is configured with a rotation motor for rotating the imaging module unit (1b) in order to photograph the entire photographing module unit (1b) in the horizontal 360-degree direction with the ground surface. A seating base on which the photographing module unit 1b is mounted may be coupled, and a photographing angle conversion motor for converting the photographing angle of the photographing module unit 1b is further configured on the seating base, so that the photographing angle of the photographing module unit 1b Can change. Accordingly, the camera rotation mechanism unit 1c is formed so that the shooting angle of the shooting module unit 1b is capable of capturing the entire hemispherical area. In this case, the camera rotation mechanism unit 1c is equipped with a hemispherical cover on the outside to prevent dust or foreign matter from entering the camera rotation mechanism unit 1c.

The camera control unit 1d is a device that includes a central processing unit and a memory to execute a preset control command program according to an input. Such a camera control unit (1d) controls the zoom function and the tilt function of the photographing module unit (1b), converts the image information captured by the photographing module unit (1b) into image information, and remote supervision set in the supervision data server (5). The rotational driving of the camera rotation mechanism 1c is controlled according to any one mode information selected from a mode, a manual supervision mode, and a security mode. Here, the camera control unit 1d is configured to perform driving according to a preset program according to each mode information or to remotely operate by external operation.

The camera communication module unit 1e is a device that performs wireless communication, and performs communication using mobile communication technologies according to generations, such as 3G, 4G, and 5G. More specifically, the camera communication module unit 1e may transmit the image information converted by the photographing module unit 1b to the supervision data server 5 by wireless communication. In addition, the camera communication module unit 1e interlocks with the supervision data server 5 to receive any one mode information selected from a remote supervision mode, a manual supervision mode, and a security mode set in the supervision data server 5 and receive the camera control unit. Transfer to (1d). In this case, the camera communication module unit 1e is formed to include a camera ID such as a MAC address or a modem specific number, and transmits the camera ID when performing communication with the supervision data server 5, and the supervision data server 5 When a plurality of 360-degree cameras 1 are connected, image information for each can be classified and stored according to the camera ID.

The component receptor 1f is formed in a box shape and accommodates the camera control unit 1d and the camera communication module, thereby protecting the camera control unit 1d and the camera communication module from being directly touched by foreign substances such as dust or water. In addition, the parts receiving body 1f is provided with a seating base 1f1 on which the camera rotation mechanism 1c is seated in an inner region to provide an area in which the camera rotational mechanism 1c can be rotated.

The connection socket 1g is coupled to the lower part of the part receiving body 1f, and is formed to protrude from the lower part of the part receiving body 1f. In this case, the connection socket (1g) is electrically connected to the power supply of the 360-degree camera (1), and receives power from the AC adapter (7) or an external battery (8) to be described later, and provides power to the 360-degree camera (1). Will be supplied.

The GPS receiver 1h receives GPS location information and receives any one mode information selected from the remote supervision mode, the manual supervision mode, and the security mode set in the camera control unit 1d. In this case, the GPS receiver (1h) monitors the GPS location information when receiving the mode information of the remote supervision mode or the security mode, and generates theft risk information when the GPS location information is out of a preset range, and the camera communication module It is transmitted to the supervision data server 5 through the communication function of the unit 1e. At this time, the supervision data server 5 receiving the theft risk information transmits a text message or alarm information about the theft risk information to the manager terminal 6, so that someone other than the manager moves the 360-degree camera 1 By making it possible to know what is being done, the situation of theft can be immediately confirmed and countermeasures can be established accordingly.

The first camera support 2 is combined with the 360 degree camera 1 to support the 360 degree camera 1.

As such, the first camera support 2 may include a camera seat plate 2a, a camera pole 2b, and a camera support leg 2c.

The camera mounting plate (2a) is configured in a plate shape to provide an area in which the AC adapter unit 7 can be fastened and coupled by bolts, etc., and when the 360-degree camera 1 is connected to the AC adapter unit 7 An area in which the 360-degree camera 1 can be seated is provided. In this case, the camera mounting plate (2a) is further formed with a socket passage hole (2a1) so that the part receiver (1f) of the 360-degree camera (1) can be inserted in a state in which the AC adapter is coupled.

The camera pole (2b) is formed in a rod shape, and one end is coupled to the camera seat plate (2a), but is formed to protrude downward. Here, the camera pole 2b may be configured in a form in which two rods are fitted so as to be adjustable in height. Such a camera pole (2b), when the 360-degree camera (1) is coupled to the camera seat plate (2a), by allowing the 360-degree camera (1) together with the camera support leg (2c) to be described later to be disposed at a certain height, 360 The road camera 1 and the AC adapter 7 are not contaminated with foreign substances such as cement powder existing on the floor of the construction site.

The camera support leg (2c) is configured in the shape of a triangular leg and is disposed under the camera pole (2b), so that the camera pole (2b) maintains a vertical state with the floor surface of the construction site, and a 360-degree camera ( 1) will be supported.

Here, since the first camera support 2 is configured to be movable as described above, the 360-degree camera 1 can be moved from a specific point on the construction site to perform the supervision work related to photographing an image.

The 360-degree lighting 3 is configured to be rotatable, and is installed inside the building so that the entire interior space of the building under construction is transmitted to irradiate light, but the moving object is tracked and photographed.

The 360-degree lighting 3 may include a second motion sensor 3a, a light emitting module 3b, a lighting rotation mechanism 3c, a lighting control unit 3d, and an interlocking cable 3e. .

The second motion sensor 3a is composed of a sensor such as an infrared sensor, and generates an object detection signal when an object moves. Here, the second motion sensor (3a) is composed of a plurality of, each of the plurality of the sensing direction is configured to be different from each other so as to detect an area in the entire direction of the 360-degree illumination (3), the 360-degree illumination (3) ) Can detect the movement of the entire area a certain distance away from the installed place.

The light-emitting module part 3b is configured in a form in which a plurality of light-emitting diodes are integrated, and emits light when power is supplied.

The lighting rotation mechanism part 3c is composed of a rotating motor for lighting for rotating the light-emitting module part 3b so that the light-emitting module part 3b photographs the whole in a 360-degree direction on a plane horizontal to the ground surface, but the shaft end of the rotating motor for lighting At the same time as the light-emitting module part 3b is seated in the light-emitting module part 3b, the lighting mounting base 3c1 covering the light-emitting module part 3b may be coupled, and the light-emitting module part 3b can be photographed at the base for mounting the lighting. An illumination angle conversion motor is further configured to change the illumination angle of the light emitting module unit 3b.

The lighting control unit 3d is electrically connected to the light emitting module unit 3b and controls turning on or off the power supplied to the light emitting module unit 3b. In addition, when the lighting control unit 3d is electrically connected to the second motion sensor 3a and detects an object by the second motion sensor 3a to generate an object detection signal, the object detection signal is input. In addition, the lighting control unit 3d is electrically connected to the lighting rotation mechanism unit 3c to adjust the horizontal rotation angle of the lighting rotation mechanism unit 3c with respect to the lighting rotation motor, and the vertical rotation angle of the illumination angle conversion motor. . In addition, the lighting control unit 3d is electrically connected to the 360-degree camera 1 by a wired cable, interlocks with the camera communication module unit 1e, and transmits information that the security mode is being executed from the camera communication module unit 1e. When an input is received, driving is performed with a preset program, and when a mode other than the security mode is being executed from the camera communication module 1e, the driving is stopped. More specifically, when the security mode is executed at night, the lighting control unit 3d continuously receives an object detection signal from the second motion sensor 3a while first turning off the light emitting module unit 3b. In this case, by turning on the power supplied to the light emitting module unit 3b while the second motion sensor 3a rotates the lighting rotation mechanism unit 3c to the position where the object is detected, the light is irradiated while tracking the moving object. It should be done, but only when a moving object is detected, the light is irradiated.

The interlocking cable 3e electrically connects the lighting control unit 3d of the 360 degree lighting 3 and the camera communication module 1e of the 360 degree camera 1. When the security mode is executed, the interlocking cable 3e transmits a driving signal related to the execution of the security mode to be input from the camera communication module unit 1e to the lighting control unit 3d, and the driving signal related to the execution of the security mode. When is input, the 360 degree illumination 3 as described above is driven by a pre-programmed setting of the illumination control unit 3d, and the security mode of the 360 degree camera 1 is set from the camera communication module unit 1e. When a driving signal for stopping is inputted, the pre-programmed driving of the lighting control unit 3d is stopped. In addition, the interlocking cable (3e) is electrically connected to the power supply (7a) of the 360-degree camera (1), the power supplied from the power supply (7a) the light-emitting module (3b) of the 360-degree illumination (3), By supplying the lighting rotation mechanism unit 3c and the lighting control unit 3d, the 360-degree lighting 3 may be driven. In this case, when the lighting control unit 3d is driven by receiving power from the power supply unit 7a by the interlocking cable 3e, and a program that tracks moving objects and irradiates light by a preset program is driven, The lighting operation signal is transmitted to the camera communication module 1e to the 360 degree camera 1 through the interlocking cable 3e, and the lighting operation signal is transmitted to the supervision data server 5 in the camera communication module 1e. The supervision data server 5 transmits a lighting operation signal when running the supervision app of the manager terminal 6 to indicate whether or not the 360-degree lighting 3 is normally running in the security mode state of the supervision app. It is marked with or letters so that the supervisor can check whether the 360-degree lighting (3) is normally operated.

The lighting support 4 is combined with the 360 degree camera 1 to support the 360 degree camera 1.

As such, the lighting support 4 may include a lighting seating plate 4a, a lighting pole 4b, and a lighting support leg 4c.

The lighting seating plate 4a is formed in a plate shape to provide an area in which the 360-degree lighting 3 can be seated in a fastened state.

The lighting pole (4b) is formed in a rod shape, and one end is coupled to the lighting seat plate (4a), but is formed to protrude downward. Here, the lighting pole (4b) may be configured in a form in which the two rods are fitted so as to be able to adjust the height. Such a lighting pole (4b), when the 360-degree lighting (3) is coupled to the lighting seating plate (4a), the 360-degree lighting (3) together with the lighting support leg (4c) to be described later is arranged at a certain height, 360 Make sure that the dojomyeong (3) is not contaminated with foreign substances such as cement powder existing on the floor of the construction site.

The lighting support leg (4c) is configured in the same shape as a triangular bridge and is disposed under the lighting pole (4b), so that the lighting pole (4b) maintains a vertical state with the floor surface of the construction site, so that 360-degree illumination ( 3) will be supported.

Here, since the illumination support 4 is configured to be movable as described above, the 360-degree illumination 3 can be moved at a specific point on the construction site to irradiate light on an object.

In this case, the lighting support 4 is a position in which the position of the 360 degree illumination 3 is lower than the position of the 360 degree camera 1, for example, the middle of the position of the 360 degree camera 1 at the floor position of the construction site. By being placed in the subgroup, when the 360 degree camera 1 photographs a moving object, the moving object is not obscured by the 360 degree illumination 3.

Referring to FIG. 5, the ultra-wide angle camera 10 is disposed around a building in a construction site so that the entire construction site can be viewed.

The ultra-wide-angle camera 10 is a camera with a viewing angle of 180° or more, and has a problem that the viewing distance is shorter than that of the 360-degree camera 1, but a plurality of them are installed around a construction site or building (S) to cover each other's blind spots. It can be said that it is very suitable to look at the exterior of the site or the building (S) at a glance.

The ultra-wide-angle camera 10 is installed on the top of the second camera support 11 to be described later, and is installed outside the construction site or the building (S) in which construction is in progress to photograph the outside of the building (S).

In this case, a plurality of ultra-wide-angle cameras 10 and second camera support 11 may be provided to minimize blind spots of supervisors or users. For example, as shown in Fig. 6, the second camera support 11 is installed around the construction site or the building (S), but when viewed from a plane, it is installed in response to the protruding or depressed portion of the building area (A). Can be. In this case, the virtual closed figure formed by connecting the plurality of second camera supports 11 to the second camera supports 11 adjacent to each other may be a shape including the building area A. In addition, even if a plurality of second camera supports 11 are installed as described above, it is not necessary to install the ultra wide-angle camera 10 on all the installed second camera supports 11. That is, even if the ultra-wide-angle camera 10 is installed by skipping any one of the second camera support 11 according to the user's selection, it may be included in the field of view of the ultra-wide-angle camera 10. At this time, the outer lighting 14 to be described later may be installed on the second camera support 11 that is empty without the ultra-wide angle camera 10 installed. This will be described later.

The second camera support 11 may be combined with the ultra wide angle camera 10 to support the ultra wide angle camera 10. In addition, the second camera support 11 may be provided with a plurality of tubular unit supports 12 to slide in a mutual telescopic manner, and a plurality of the second camera support 11 may be disposed outside the building (S) under construction. Each of the plurality of second camera supports 11 may have different heights according to the user's selection.

The unit support 12 located at the bottom of the plurality of unit supports 12 constituting the second camera support 11 may include an inner support 12a and an outer support 12b. The unit support 12 located directly above the unit support 12 located at the bottom of the unit can be slid inside the inner support 12a of the tubular shape, and may have a stopper (not shown) to fix the height. . The stopper is not particularly limited to any one, and any method may be applied as long as the sliding of the unit support 12 can be stopped.

The outer support 12b may be disposed outside the inner support 12a. The outer support 12b is rotatable outside of the inner support 12a, and a plurality of the outer supporters 12b may be prepared.

The infrared sensor 13 may be installed on the lowest unit support 12 among the plurality of unit supports 12. That is, the infrared sensor 13 may be provided on the outer support 12b.

The infrared sensor 13 may include a light emitting part 13a and a light receiving part 13b. At this time, the light-emitting unit 13a is installed on the outer support 12b of any one second camera support 11 to generate and emit infrared rays, and the light-receiving unit 13b is adjacent to any one second camera support 11 It is installed on the outer support 12b of the second camera support 11 to receive the infrared radiation emitted from the light emitting unit 13a.

In addition, the plurality of light emitting portions 13a and the light receiving portions 13b of the infrared sensor 13 may be alternately disposed along the length direction of the second camera support 11 on each of the plurality of outer supports 12b. At this time, it is preferable that only one light-emitting portion 13a or one light-receiving portion 13b is disposed on one outer support 12b.

This is for the case where the second camera support 11 is disposed around the building area A, and the plurality of second camera supports 11 are not included in the virtual plane. In general, the second camera support 11 is located at the apex that is jagged or bent to suit the situation around the construction site or the building (S), at this time, the outer support 12b of the second camera support 11 adjacent to each other. ) By rotating each, one light-emitting portion 13a of one second camera support 11 and one light-receiving portion 13b of neighboring second camera support 11 face each other, so that the infrared sensor 13 Can be activated (see Figs. 7 and 8). For reference, infrared rays are indicated by I in the drawing.

Referring to FIG. 10, out of the second camera support 11, the outer lighting 14 may be installed in an empty place without the ultra-wide camera 10 being installed. At this time, the outer lighting 14 is compatible with the end of the second camera support 11, like the ultra-wide camera 10.

Referring to FIGS. 11A and 11B, an ultra-wide camera 10 and an exterior lighting 14 may be installed together on the second camera support 11. At this time, the unit support 12 at the top of the second camera support 11 may have a first rail 15 formed on a part of the outer side, and the outer lighting 14 may be installed on the first rail 15. I can.

The first rail 15 may be formed along the length direction of the second camera support 11. The outer lighting 14 can slide up and down along the first rail 15 according to the user's intention, and when the outer lighting 14 reaches a desired point among the first rails 15 by the user, it is shown in the drawing. Although not shown, it may be fixed through the second rail 16 (not shown). At this time, the first rail 15 can electrically connect external power to the exterior lighting 14. In addition, the second camera support 11 receives electrical connection means (not shown) such as an electric wire (not shown) therein to receive current from an external power source to the ultra-wide camera 10 and the first rail 15. They can be branched and electrically connected to each other. An electric wire may be used as the electrical connection means, a conductive tape (not shown) or conductive ink (not shown) may be used, and the unit support 12 of the second camera support 11 is a telescopic method. As long as it does not interfere with sliding, any configuration or method may be used as the electrical connection means.

For reference, it is preferable that the first rail 15 has a concave groove shape from the outer surface of the second camera support 11. Therefore, when the user separates the outer lighting 14 from the first rail 15 and then slides the unit support 12 located at the top of the second camera support 11 provided with the first rail 15 in a telescopic manner. , Interference between the unit supports 12 can be prevented.

Meanwhile, referring to FIG. 12, the outer lighting 14 and the ultra wide angle camera 10 disposed around the building area A may be alternately disposed. In this case, the outer lighting 14 and the ultra-wide camera 10 may be installed on the second camera support 11. In addition, after installing the outer lighting 14 on the outer lighting support 17 to be described later and installing the ultra-wide angle camera 10 on the second camera support 11, the outer lighting support 17 and the second camera support 11 ) Can be arranged alternately. In addition, in this case, the number of the outer lighting support 17 and the second camera support 11 disposed around the building area A may be an even number.

The outer lighting support 17 is formed in a rod shape, and a second rail 16 on the outer surface may be disposed along the longitudinal direction. The second rail 16 is slidable by inserting the outer light 14, and the outer light 14 is a position desired by the user on the second rail 16 according to the user's selection by a separate fixing means (not shown). Can be fixed in.

Referring to FIG. 13, the outer lighting support 17 and the second camera support 11 may be bundled and installed. At this time, the electrical connection means is branched from the basement and electrically connected to the second camera support 11 and the outer lighting support 17, respectively, and can supply electricity to the ultra-wide angle camera 10 and the outer lighting. The outer lighting support 17 and the second camera support 11 may be disposed as shown in FIG. 6. It is preferable that the outer lighting support 17 is disposed at a height lower than that of the second camera support 11 so that the outer lighting 14 does not interfere with the photographing of the ultra wide-angle camera 10.

When the outer lighting support 17 is erected on the ground or floor in a rod shape, the center of gravity is located higher than the ground or floor, and when the outer lighting 14 is installed, the center of gravity may be higher, so it is not subject to external forces such as wind. Can be knocked down by Accordingly, in an embodiment of the present invention, the outer lighting support 17 may be tied to and supported by the second camera support 11 so as not to shake the outer lighting support 17 by providing a binding means 17a.

The binding means 17a may be a clamp, but the present invention is not limited thereto, and any one may be used as long as it can be installed according to the size of the unit support 12 slidable in a telescopic manner.

In addition, when a trespassing particle intrudes and is detected by the infrared sensor 13, it is preferable that the outer lighting 14 closest to the first and second at the detection position is turned on. Virtually all of the exterior lighting 14 should be turned on, but the exterior lighting 14 will be operated mainly at night, and is intended to minimize damage to nearby people who are sleeping. However, when there is no authorization around the construction site, the user may set all exterior lighting to be turned on when an intruder intrudes.

The supervision data server 5 is a server managed by a company that performs supervision, and is installed and operated in a supervisory company or a server provider. Such supervision data server 5 is photographed by a 360 degree camera 1 or an ultra wide angle camera 10 according to the camera ID of the 360 degree camera 1 or the ultra wide angle camera 10, the name of the construction site, the type of construction, and the date and time. One image is stored in the form of DB, but the DB is separated and stored according to the remote supervision mode, manual supervision mode, and security mode. First, in the case of the remote supervision mode, the supervision data server 5 receives and stores the image captured by the 360 degree camera 1 or the ultra-wide angle camera 10, but remotely photographs the work progress of each work type from the inside of the building. The image information is stored in the form of a DB, including the date, time, execution mode, and work type. Next, in the case of the manual supervision mode, the supervision data server 5 receives and stores the image taken by the 360 degree camera 1 or the ultra wide angle camera 10, but manually photographs the work progress of each type from the inside or outside of the building. The date, time, execution mode and contents of the work type are stored in DB format for manual video information for each type of work. Next, in the case of the security mode, the supervision data server 5 photographs an object by interlocking with the 360-degree camera 1 and the 360-degree illumination 3, but the 360-degree illumination 3 is detected by the second motion sensor 3a. In a state in which light is irradiated on a moving object according to an object detection signal, the 360-degree camera 1 photographs an object according to the object detection signal detected by the first motion sensor 1a, and the 360-degree camera 1 shoots. One image is received and stored, but the date, time, execution mode, and security content of the security situation are stored in DB format. Such a supervision data server 5 selectively executes each of a remote supervision mode, a manual supervision mode, and a security mode by the manager terminal 6 to be described later.

The manager terminal 6 may be configured as a communication terminal having a display function and a touch panel function, such as a smart phone or tablet PC carried by the supervisor, and may be configured as a desktop PC or a laptop if necessary. Such an administrator terminal 6 interlocks with the supervision data server 5 and transmits a setting signal for selecting and setting a remote supervision mode, a manual supervision mode, and a security mode to the supervision data server 5, The supervision data server 5 is controlled so that any one of the supervision mode and the security mode is executed. In this case, the manager terminal 6 is installed and operated in connection with the supervision data server 5 to execute the respective mode information. Here, the supervisory app installed and operated on the manager terminal 6 is programmed so that execution buttons for each of the remote supervision mode, manual supervision mode, and security mode are interlocked with the touch panel on the screen of the app. In this case, when the remote supervision mode is executed by the supervisor, the supervision app receives image information stored in the supervision data server 5 by taking a 360 degree camera (1) or an ultra-wide angle camera (10), and the current 360 degree camera (1) Alternatively, you can check the screen of the manager terminal 6 to see which type of construction is being filmed and stored in the video taken by the ultra wide-angle camera 10, and when the manager drags the screen by pointing in a specific direction with a finger. A drag program is interlocked so that the photographing direction of the 360 degree camera 1 or the ultra wide angle camera 10 is rotated in the dragged direction, so that the photographing direction of the 360 degree camera 1 or the ultra wide angle camera 10 can be remotely operated. Here, when the manager terminal 6 is composed of a desktop PC or a laptop, a PC program or a PC program for the laptop is installed to supervise the image information recorded by the 360-degree camera 1 or the ultra-wide-angle camera 10. It is input from the data server 5, and the photographing direction of the 360-degree camera 1 or the ultra-wide angle camera 10 can be changed by a drag operation of an input device such as a mouse. In addition, the manager terminal 6 may be electrically connected to the 360-degree camera 1 or the ultra-wide camera 10 by a signal cable, and when the manual supervision mode is executed while being electrically connected to the signal cable, the 360-degree camera ( 1) Alternatively, image information photographed by the ultra-wide-angle camera 10 may be input. In this way, when the screen is touched by the supervisor and the manual supervision mode is executed, the supervisor terminal 6 transfers the image information photographed by the 360 degree camera 1 or the ultra wide-angle camera 10 to the supervisor terminal 6. In the checked state, the 360 degree camera 1 or the ultra-wide angle camera 10 can be carried, and a video and a still image of the work progress of the work type can be selectively photographed. In this case, the supervision app is set to record buttons and recording buttons for video and still images when the manual supervision mode is executed, and when the supervisor touches the touch panel for the recording button and the recording button, the video and stops. The image may be stored in the supervision data server 5, and when the stop button is touched, the moving image and the still image may be stored. In addition, the administrator terminal 6 is executed when the supervisor touches the execution icon for the security mode of the supervisory app, and when the security mode stop icon is stopped, the security mode is stopped, and the supervision data server is executed when the security mode is executed. In (5), the 360 degree camera 1 and the 360 degree illumination 3 monitor the intruder entering the construction site by the first motion sensor 1a and the second motion sensor 3a.

The AC adapter portion 7 includes a power supply portion 7a, an AC connection cord portion 7b, a power source cover body 7c, and a power-side connection terminal 7d.

The power supply unit 7a is a device that converts AC power into DC power. Such a power supply unit 7a is electrically connected to the connection socket 1g to supply DC power to the photographing module unit 1b, the camera rotation mechanism unit 1c, the camera control unit 1d, and the camera communication module unit 1e. It is done.

The AC connection cord portion 7b is formed in a cord shape with an AC power terminal connected to one end, and is electrically connected to the power supply portion 7a. Such an AC connection cord part 7b electrically connects the construction power terminal box and the power supply part 7a in a construction site.

The power supply part cover body 7c is formed in a cylindrical shape. In this case, by accommodating the power supply unit 7a so that the power supply unit 7a is seated inside the power supply unit cover body 7c, the power supply unit 7a is prevented from being contaminated by external foreign substances. In addition, the power supply unit cover body 7c is formed in a shape in which the insertion region of the connection socket 1g is recessed downward so that the connection socket 1g is inserted. In addition, the power supply unit cover body (7c) is coupled to the camera mounting plate (2a) of the first camera support (2) by a fastening member such as a bolt, in this case, the power supply unit cover body (7c) is the camera mounting plate (2a) The socket passage hole and the connection socket (1g) insertion area may be matched so that the connection socket (1g) is inserted.

The power-side connection terminal 7d is disposed in the insertion region of the connection socket 1g, and is electrically connected when the connection socket 1g is inserted into the insertion region of the connection socket 1g. In this case, the power-side connection terminal 7d is electrically connected to the power supply unit 7a to supply the DC power converted by the power supply unit 7a to the 360 degree camera 1.

The external battery 8 includes a battery part 8a, a battery cover body 8b, and a battery connection terminal 8c.

The battery unit 8a is electrically connected to the connection socket 1g to supply DC power to the photographing module unit 1b, the camera rotation mechanism unit 1c, the camera control unit 1d, and the camera communication module unit 1e. Will be supplied. Here, the battery unit 8a may be composed of a rechargeable lithium-ion battery, and may be separated and replaced from the battery cover body 8b to be described later when the lifespan is over.

The battery cover body 8b is formed in a cylindrical shape to accommodate the battery part 8a, thereby preventing the battery part 8a from being contaminated by external contaminants. In this case, the battery cover body 8b is formed with a socket insertion region into which the connection socket 1g is inserted, and is detachably coupled to the part receiving body 1f of the 360-degree camera 1. Here, the socket insertion region formed in the battery cover body 8b may have the same shape as the insertion region of the connection socket 1g of the power supply cover body 7c.

The battery connection terminal 8c is disposed in the socket insertion area, and is electrically connected when the connection socket 1g is inserted into the socket insertion area. In addition, the battery connection terminal 8c is electrically connected to the battery and supplies DC power supplied from the battery to the connection socket 1g so that the 360-degree camera 1 is driven.

The AC adapter unit 7 and the external battery 8 have a connection socket (1g) insertion region and a socket insertion region formed in the same shape, and are supplied as power by wire by the AC adapter unit 7 or external battery Power is supplied wirelessly by (8). When the 360-degree camera 1 is fixed and used, power is continuously supplied from the AC adapter 7 to be driven, so that it is fixedly usable. In addition, when the 360-degree camera 1 is carried and used, the 360-degree camera 1 is formed to be portable so that the 360-degree camera 1 is continuously supplied with power from the external battery 8 to be driven. Accordingly, when the supervisor performs the remote supervision mode in order to secure image information on the work situation for each work type, the supervisor can be driven by continuously receiving power from the AC adapter unit 7. In addition, when the supervisor performs the manual supervision mode in order to secure image information on the work situation for each type of work, by carrying the external battery 8 mounted on the 360 degree camera 1, the image of the work situation for each process Information can be obtained.

The hanging string 9 is formed by extending from the external battery 8 with both ends attached to the external battery 8. Such a hanging string (9) is carried by the supervisor in a state where the external battery (8) is connected to the 360 degree camera (1) in order to photograph the work situation for each type of work while the supervisor is carrying a 360-degree camera. By wrapping it around the neck or shoulder of the person, it is possible for the supervisor to perform supervision very easily.

Hereinafter, the operation of the construction supervision and intrusion monitoring system according to an embodiment of the present invention having the configuration as described above will be described.

First, the supervisor transmits the camera ID of the 360 degree camera 1 or the ultra-wide angle camera 10 to the supervision data server 5 while running the supervision app of the manager terminal 6, and The work contents for each construction district work type according to the input camera ID are transmitted to the supervision app of the manager terminal 6 so that the work contents for each construction district work type are output on the screen of the supervision app. In this case, the supervisor can newly input or modify the work content for each construction district work type according to the camera ID by a text input device linked with the supervision app and store it in the supervision data server 5.

Next, the supervisor arranges a 360-degree camera (1) inside the construction site where the supervision is performed, but the camera in a state in which the 360-degree camera (1) is coupled to the camera mounting plate (2a) of the first camera support (2). Arranged to be positioned at a certain height by the pole (2b) and the camera support leg (2c), and the 360-degree lighting (3) is coupled to the lighting seat plate (4a) of the lighting support (4), and the lighting pole (4b) and It is arranged to be positioned at a certain height by the lighting support legs 4c.

In addition, the supervisor arranges the ultra-wide angle camera 10 outside the construction site where the supervision is performed, but attaches the ultra-wide angle camera 10 to the upper end of the second camera support 2 and attaches a plurality of unit supports 12 By sliding up and down, the exterior of the building (S) is arranged so that it is located at a height that catches a glance.

Next, if the supervisor touches the remote supervision mode icon on the touch panel of the supervisor terminal 6 among the preset program icons of the supervisor app while the supervisor runs the supervision app of the supervisor terminal 6, the remote supervision mode When the supervisor touches the manual supervision mode icon among the preset program icons of the supervisory app on the touch panel of the manager terminal 6, the supervisor selects the manual supervision mode. The screen is switched to the screen to execute the manual supervision mode, and when the supervisor touches the security mode icon among the icons of the preset program of the supervision app on the touch panel of the administrator terminal (6), the screen for selecting the security mode is switched to the security mode. The mod will be executed.

Here, when the supervisor wants to proceed with the remote management mode, the supervisory mode icon is displayed on the touch panel of the manager terminal 6 among preset program icons of the supervisory app while running the supervision app of the manager terminal 6. When touched, the manager terminal 6 interlocks with the supervision data server 5, and the image information recorded in the supervision data server 5 by shooting with a 360 degree camera 1 or an ultra-wide camera 10 is supervised. The image information being photographed by the 360 degree camera 1 or the ultra wide angle camera 10 is output on the screen of the manager terminal 6 by receiving input from the server 5. In this case, in the remote supervision mode, when the manager terminal 6 displays the image information of the 360 degree camera 1 or the ultra-wide camera 10 and drags the touch panel screen of the manager terminal 6 in one direction, The 360-degree camera (1) or the ultra-wide-angle camera (10) changes the shooting direction by rotating in proportion to the drag distance in the dragged direction, and the supervisor confirms that the shooting direction has changed through the manager terminal (6) and wants to supervise it. It is possible to remotely check the progress of work on the construction type. In this case, when the supervisor touches the end button of the remote supervision mode existing on the screen of the supervisor terminal 6, the remote supervision mode is stopped and the image information transmitted from the supervision data server 5 to the supervisor terminal 6 Transmission is stopped.

Next, when the supervisor wants to execute the manual supervision mode, the supervisor connects the external battery 8 to the 360 degree camera 1 while the 360 degree camera 1 is separated from the AC adapter The road camera (1) is connected to the manager terminal (6) with a signal cable, and is used while carrying the body by using a hanging string (9). Subsequently, when the supervisor touches the manual supervision mode icon on the touch panel of the supervisor terminal 6 among preset program icons of the supervision app while running the supervision app of the supervisor terminal 6, the 360-degree camera ( When the video information that 1) is shooting is output to the screen of the manager terminal 6 through the signal cable, and when executed by touching the video shooting icon formed in the supervision app, the current 360-degree camera (1) is It transmits the video information about the supervision data server (5). In addition, when the supervisor touches and executes the photo-taking icon formed in the supervision app of the manager terminal 6 while viewing the screen of the manager terminal 6, the 360-degree camera 1 captures the image information. As a result, it is transmitted to the supervision data server 5. Next, when the supervisor touches the end button of the manual supervision mode, the manual supervision mode is stopped.

Next, the supervisor wants to execute the security mode, and in the case of the night after work and hours of the construction site, the supervisor selects and executes the security mode of the supervision app of the manager terminal 6. In this case, when the supervisor selects the security mode of the supervision app, an icon for the execution of the security mode is displayed on the supervision app of the administrator terminal 6, and the start information of the security mode is transmitted to the supervision data server 5 Then, the supervision data server 5 transmits information on the execution of the security mode to the 360 degree camera 1 and the 360 degree illumination 3 through the camera communication module unit 1e. Then, each of the 360-degree camera (1) and the 360-degree lighting (3) continuously monitors the person invading the construction site through the first motion sensor (1a) and the second motion sensor (3a). When a person intrudes into the vehicle, each object detection signal is generated. In this way, when the object detection signal is generated, in the 360-degree illumination 3, the light-emitting module unit 3b is turned on by the illumination control unit 3d to illuminate the surroundings, and the second motion sensor is irradiated to the moving object. (3a) tracks the object, and the lighting rotation mechanism rotates toward the direction in which the second motion sensor 3a detects the object to track the moving object to irradiate light. In this case, the 360 degree camera generates image information while tracking the moving object by the first motion sensor 1a and the camera rotation mechanism 1c, and transmits the image information to the supervision data server 5, so that the image for the execution of the security mode It will save the information.

In addition, when the supervisor selects and executes the security mode of the supervision app of the supervisor terminal 6 in the case of the night after work and hours of the construction site, the supervisor app of the supervisor terminal 6 has an icon for the execution of the security mode. It is displayed, and the start information of the security mode is transmitted to the supervision data server 5, and the supervision data server 5 transmits information on the execution of the security mode to the ultra-wide angle camera 10 and the infrared sensor 13. Then, the ultra-wide angle camera 10 photographs the construction site or the periphery of the building (S), and the infrared sensor 13 continuously monitors by detecting a person invading the construction site. In this case, the supervisory data server 5 and the manager terminal 6 are notified of the intrusion. In this case, the 360-degree camera 1 and the ultra-wide camera 10 generate image information and transmit it to the supervision data server 5 to store the image information when the security mode is executed.

On the other hand, while the supervisor is executing the security mode as described above, the GPS receiver (1h) of the 360-degree camera (1) is driven to continuously receive the location information of the 360-degree camera (1) to continuously check whether the location information is changed. Theft risk information is generated when the location information is changed and the theft risk information is generated by the supervision data server 5 through the camera communication module unit 1e. In this case, the supervision data server 5 receiving the theft risk information transmits a text message or alarm information on the theft risk information to the manager terminal 6.

In this way, in the construction supervision and intrusion monitoring system according to an embodiment of the present invention, the 360 degree camera 1 or the ultra-wide angle camera 10 installed at the construction site interlocks with the supervision data server 5 to take pictures of supervision for each type of construction. Because it is automatically saved, it allows the supervisor to shorten the work progress document creation task for each type of work as much as possible without having to proceed with complicated programming for each design standard of the construction site, and at the same time, the supervisor can take a picture using his smartphone or PC. Data that determines whether the work is normally progressed can be recorded automatically without having to write a document with photos.

In addition, in the construction supervision and intrusion monitoring system according to an embodiment of the present invention, the 360 degree camera 1, the 360 degree illumination 3, and the ultra wide angle camera 10 detect the location of the intruder illegally intruding into the construction site at night. Since it is tracked and photographed, but is driven only when an intruder is detected, the lighting function and the photographing function are executed only where the intruder is located, but the lighting function and the photographing function are executed only when an intruder is detected, thereby reducing waste of electricity. It is to prevent civil complaints from occurring due to the light of the lights.

In addition, the inspection site supervision and security system according to an embodiment of the present invention makes it possible to monitor the work situation for each type of work by using a 360 degree camera 1 or an ultra-wide angle camera 10 according to a remote supervision mode, and supervises when necessary. In manual supervision mode, you can carry a 360-degree camera (1) to take a close-up picture of the work situation for each type of work, so even if the supervisor is not at the site, video information on the work situation for each type of work can be secured remotely, or if the supervisor is at the site, 360 By directly carrying the road camera 1, it is possible to secure a close-up image.

In addition, the inspection site supervision and security system according to an embodiment of the present invention automatically tracks and monitors an intruder with a 360-degree camera (1) and 360-degree lighting (3) when the security mode is executed. Since the administrator can know the situation in which an illegally intruding intruder steals the camera by the GPS receiver (1h) and the supervision data server (5), the theft situation can be known and follow-up measures can be easily established accordingly. .

As described above, in the present invention, specific matters such as specific components, etc., and limited embodiments and drawings have been described, but this is provided only to help a more general understanding of the present invention, and the present invention is not limited to the above embodiments. , If a person of ordinary skill in the field to which the present invention belongs, various modifications and variations are possible from these descriptions.

Therefore, the spirit of the present invention is limited to the described embodiments and should not be determined, and all things that are equivalent or equivalent to the claims as well as the claims to be described later fall within the scope of the present invention. .

1: 360 degree camera
1a: first motion sensor 1b: photographing module unit
1c: camera rotation mechanism unit 1d: camera control unit
1e: camera communication module 1f: parts receptor
1g: connection socket 1h: GPS receiver
2: 1st camera support
2a: camera mounting plate 2b: camera pole
2c: camera support leg
3: 360 degree lighting
3a: second motion sensor 3b: light-emitting module unit
3c: lighting rotation mechanism unit 3d: lighting control unit
3e: Interlocking cable
4: lighting support
4a: lighting mounting plate 4b: lighting pole
4c: lighting support legs
5: Supervision data server 6: Administrator terminal
7: AC adapter part
7a: power supply part 7b: AC connection cord part
7c: Power supply cover body 7d: Power side connection terminal
8: external battery
8a: battery part 8b: battery cover body
8c: battery connection terminal
9: hanging string
10: ultra-wide angle camera 11: second camera support
12: unit support
12a: inner support 12b: outer support
13: infrared sensor 13a: light emitting part
13b: light receiving unit
14: exterior lighting 15: 1st rail
16: second rail 17: outer lighting support
17a: means of binding
A: Building area S: Building
I: infrared

Claims (15)

A 360-degree camera (1) that is installed inside the building (S) so as to photograph the entire inner space of the building (S) under construction, and includes a first motion sensor (1a) that generates an object detection signal when an object moves;
A first camera support (2) coupled with the 360-degree camera (1) to support the 360-degree camera (1);
A 360-degree illumination (3) including a second motion sensor (3a) installed inside the building (S) so as to transmit the entire inner space of the building (S) under construction, and generating an object detection signal when an object moves;
A lighting support (4) that is combined with the 360-degree lighting (3) to support the 360-degree lighting (3);
An ultra-wide angle camera 10 installed outside the building (S) so as to photograph the outside of the building (S) in which the construction is in progress;
Combined with the ultra wide angle camera 10 to support the ultra wide angle camera 10, a plurality of tubular unit supports 12 slide in a telescopic manner to determine the height of the ultra wide angle camera 10, and the construction A second camera support 11 disposed outside the building (S) in progress according to the user's selection;
An infrared sensor 13 installed on the lowest unit support 12 among the plurality of unit supports 12 and detecting unauthorized intruders;
External lighting that is installed outside the building (S) so as to illuminate the outside of the building (S) in which the construction is in progress, and is turned on according to the intention of the user or when a trespassing intruder is detected by the infrared sensor 13 (14);
A remote supervision mode for receiving and storing the image captured by the 360-degree camera 1 and the ultra-wide camera 10, but remotely photographing the work progress for each type of work from the inside of the building S and storing it as remote image information for each type of work, Manual supervision of receiving and storing the image captured by the 360-degree camera 1 and the ultra-wide-angle camera 10, but manually photographing the work progress for each type of work inside or outside the building (S) and storing it as manual image information for each type of work. Mode, and the 360-degree camera 1 interlocks with the 360-degree lighting 3 to photograph an object, but the 360-degree lighting 3 moves according to the object detection signal detected by the second motion sensor 3a. A supervision data server 5 including a security mode in which the 360-degree camera 1 photographs an object according to an object detection signal detected by the first motion sensor 1a in a state in which light is irradiated on an object; And
An administrator terminal 6 controlling the supervision data server 5 so that any one of the remote supervision mode, the manual supervision mode, and the security mode is executed in connection with the supervision data server 5;
Construction supervision and intrusion monitoring system comprising a.
The method of claim 1,
The 360-degree camera (1) includes the first motion sensor (1a), a photographing module unit (1b) for converting optical information input through a lens into image information, the first motion sensor (1a), and the photographing module unit ( 1b) is seated and the camera rotation mechanism unit 1c that adjusts the photographing direction of the photographing module unit 1b when rotating, the zoom function and the tilt function of the photographing module unit 1b are controlled, and the photographing module unit 1b Converts the image information photographed in the image information into image information, and rotates the camera rotation mechanism unit 1c according to any one mode information selected from a remote supervision mode, a manual supervision mode, and a security mode set in the supervision data server 5 The video information converted by the camera control unit 1d and the photographing module unit 1b is transmitted to the supervision data server 5 and interlocks with the supervision data server 5 to the supervision data server 5. The camera communication module unit (1e), the camera control unit (1d), and the camera communication module receiving any one mode information selected from the set remote supervision mode, the manual supervision mode, and the security mode are input and transmitted to the camera control unit (1d). Construction supervision and intrusion monitoring system, characterized in that it comprises a component receiving body (1f) to accommodate and a connection socket (1g) protruding from the lower portion of the component receiving body (1f).
The method of claim 2,
The 360-degree camera 1 further includes a GPS receiver (1h) that receives GPS location information and receives mode information selected from a remote supervision mode, a manual supervision mode, and a security mode set in the camera control unit 1d. Is formed including,
When receiving the mode information of the remote supervision mode or the security mode, the GPS receiver (1h) monitors the GPS location information and generates theft risk information when the GPS location information is out of a preset range, and communicates with the camera. Transmitted to the supervision data server 5 through the communication function of the module unit 1e, and the supervision data server 5 receiving the theft risk information inputs a text message or alarm for the theft risk information to the manager terminal 6 Construction supervision and intrusion monitoring system, characterized in that transmitting information.
The method of claim 2,
Converts AC power to DC power and is electrically connected to the connection socket (1g) so that the photographing module unit (1b), the camera rotation mechanism unit (1c), the camera control unit (1d), and the camera communication module unit (1e) The power supply unit 7a is accommodated so that the power supply unit 7a for supplying the DC power to the power supply unit 7a, the AC connection cord unit 7b electrically connected to the power supply unit 7a, and the power supply unit 7a are seated. It is coupled to the first camera support (2), the power supply unit cover body (7c) in which the connection socket (1g) insertion region is formed so that the connection socket (1g) is inserted, and the connection socket (1g) is disposed in the insertion region, and the An AC adapter part 7 including a power-side connection terminal 7d electrically connected when the connection socket 1g is inserted into the connection socket 1g insertion area; And,
It is electrically connected to the connection socket (1g) to supply DC power to the photographing module unit (1b), the camera rotation mechanism unit (1c), the camera control unit (1d), and the camera communication module unit (1e). A battery cover body (8b) that receives the battery part (8a) to supply and the battery part (8a) and has a socket insertion region into which the connection socket (1g) is inserted, and is detachably coupled to the part receiving body (1f). ), and an external battery 8 including a battery connection terminal 8c disposed in the socket insertion area and electrically connected when the connection socket 1g is inserted into the socket insertion area; and ,
The AC adapter unit 7 and the external battery 8 are formed in the same shape as the connection socket 1g insertion region and the socket insertion region, and are supplied by wire by the AC adapter unit 7 as electric power, or Alternatively, by wirelessly receiving power by the external battery 8, when the 360-degree camera 1 is fixed and used, power is continuously supplied from the AC adapter 7 to be driven, and the 360-degree Construction supervision and intrusion monitoring system, characterized in that, when the camera (1) is used by carrying it, it is continuously supplied with power from the external battery (8) to be driven so that it can be used for fixed or portable use.
The method of claim 1,
A signal cable electrically connecting the manager terminal 6 and the 360-degree camera 1; further includes,
The manager terminal 6 is installed with a supervision app to set the remote supervision mode, the manual supervision mode, and the security mode in the supervision data server 5, and the supervision app is executed to proceed with the manual supervision mode. In this case, the image information being photographed by the 360-degree camera 1 is transmitted to the 360-degree camera 1 and displayed through the signal cable, and the photographing direction of the 360-degree camera 1 by the supervision app Construction supervision and intrusion monitoring system, characterized in that to be changed manually.
The method of claim 1,
The plurality of second camera supports 11 are installed in different heights according to the user's selection, and the area of the closed figure formed by virtually connecting the adjacent second camera supports 11 to each other is a building ( Construction supervision and intrusion monitoring system comprising the area (A) of S).
The method of claim 1,
The infrared sensor 13,
A light emitting unit 13a installed on any one second camera support 11 and emitting infrared rays to emit light;
A light-receiving unit (13b) installed on the second camera support (11) adjacent to the second camera support (11) and receiving infrared rays emitted from the light-emitting unit (13a);
Construction supervision and intrusion monitoring system comprising a.
The method of claim 7,
Construction supervision and intrusion monitoring, characterized in that in the second camera support 11, a plurality of light emitting units 13a and a plurality of light receiving units 13b are alternately arranged along the longitudinal direction of the second camera support 11 system.
The method of claim 7,
The unit support 12 located at the bottom of the second camera support 11,
A tubular inner support (12a);
A plurality of outer supports (12b) surrounding the inner support to be rotatable from the outside of the inner support (12a);
Including,
Each of the plurality of outer supports (12a) is a construction supervision and intrusion monitoring system, characterized in that at least one of the light emitting portion (13a) or the light receiving portion (13b) is installed.
The method of claim 1,
The exterior lighting 14 is a construction supervision and intrusion monitoring system in which the first and second close lights are selected and turned on from the position where the unauthorized intruder is detected.
The method of claim 1,
A construction supervision and intrusion monitoring system in which an even number of the plurality of second camera supports 11 are installed, and the ultra wide angle camera 10 and the outer lighting 14 are alternately installed on the second camera support 11.
The method of claim 1,
The second camera support 11,
A first rail 15 installed on a part of an outer surface such that the outer lighting 14 is slidable or fixed, and electrically connected to the outer lighting 14;
Including more,
A construction supervision and intrusion monitoring system capable of supplying current to the first rail (15) or exterior lighting (14) from an external power source through the inner space of the unit support (12).
The method of claim 1,
An outer light support 17 provided on a part of an outer surface such that the outer light 14 is slidable or fixed, and provided with a second rail 16 capable of electrically connecting with the outer light 14;
Construction supervision and intrusion monitoring system further comprising.
The method of claim 13,
The outer lighting support (17) is at least partially in contact with the second camera support (11) and is fixed to the second camera support (11) by a fixing means (17a) is a construction supervision and intrusion monitoring system.
The method of claim 13,
Construction supervision and intrusion monitoring system in which the outer lighting support 17 and the second camera support 11 are alternately arranged.

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