KR102589202B1 - Vehicle indoor non-face-to-face prevention system using intelligent indoor surveillance camera - Google Patents

Abstract

The present invention relates to a vehicle indoor non-face-to-face quarantine system using an intelligent indoor surveillance camera 340, and includes a database unit storing vehicle indoor quarantine device information, manager information, vehicle interior information, and quarantine information; It includes a server that receives vehicle interior information from the vehicle interior quarantine device and controls quarantine. In an embodiment of the present invention, the manned quarantine method performed directly by workers is replaced with a 100% unmanned method, making it possible to perform safe and continuous vehicle interior quarantine in an untact method.

Description

Vehicle indoor non-face-to-face prevention system using intelligent indoor surveillance camera}

The present invention relates to a vehicle indoor non-face-to-face quarantine system using an intelligent indoor surveillance camera. In particular, it performs a mist sterilization function when people and animals inside the vehicle are not detected, and when people and animals are detected, it performs air purification and deodorization functions. It is about a non-face-to-face quarantine system inside a vehicle using an intelligent indoor surveillance camera that operates and can control applications from outside the vehicle using Bluetooth communication.

As the world faces rapid environmental risks due to the COVID-19 pandemic and quarantine is expected to become routine, periodic response through regulations on infectious diseases and preemptive daily quarantine are becoming a daily routine.

Globally, governments around the world are aware of the risks and problems of COVID-19 and are taking measures such as regional containment control, strengthening social distancing, banning gatherings, and complying with daily quarantine rules, or are taking preemptive responses through vaccination.

In daily life, the indoor environment of vehicles with multiple users, such as public transportation, is a very vulnerable space where people are directly or indirectly exposed to viruses.

However, the current quarantine for the vehicle interior environment is generally at the level of workers checking the passengers' situation or environment and then directly applying disinfectant and wiping the surface or using quarantine equipment to sterilize it.

As such, in the past, safe non-face-to-face vehicle indoor quarantine based on manned operation is insufficient. In other words, since separate worker management is required for indoor surveillance and operation of quarantine equipment, it is difficult to safely non-face-to-face quarantine inside the vehicle, which is a space in daily life, from new viruses, bacteria, and harmful substances by directly manned quarantine.

In addition, the conventional method is simple manual operation rather than intelligent control and automatic operation, so preemptive and regular vehicle interior quarantine is insufficient. In other words, there is currently no system that can automatically detect the vehicle's indoor environment and passengers, and the absence of system integrated control and monitoring functions means that only irregular and post-mortem quarantine is possible.

In addition, conventional quarantine products lacked convenience. In other words, the existing mist sterilizer cannot be mounted at all times as there is no car-specific product, and there was the inconvenience of having to move the product when using it. The existing large-sized mist sterilizer operates by applying a separate AC 110~240 power source, preventing quarantine inside the car. There were inconveniences in use, and existing larger products had high noise (over 100 dB) and long warm-up time (over 3 minutes), which limited their use.

In addition, in the past, sterilization and quarantine performance were insufficient. In other words, the sterilization/disinfection ability of quarantine blind spots (surfaces and gaps of handles, chairs, handles, etc.) due to the spray method is insufficient, and the disinfection method of spraying disinfectant increases the risk of inhalation of infectious agents and has insufficient disinfection effect, so the disinfection method is insufficient. It was not suitable for disinfection.

In addition, in the past, there was a limit to the simultaneous application of quarantine and air purification due to its simple function. In other words, to date, there is no combined fog sterilization and air purification system for vehicle interiors. Existing automotive air purifiers have the function of sucking in harmful components in the air and removing them with a filter, but bacteria and viruses are present on surfaces and crevices inside the vehicle. There were limits to removal.
Prior literature: Registered Patent No. 10-2463052

The technical problem that the present invention seeks to achieve is to improve the inconveniences of the past. An intelligent indoor surveillance camera that replaces the manned quarantine method manually performed by workers with a 100% unmanned method, enabling safe and constant vehicle interior quarantine in an untact method. The goal is to provide a non-face-to-face quarantine system inside a vehicle using .

In addition, the technical task to be achieved by the present invention is to improve the existing inconveniences. By increasing convenience by applying AI-based vehicle interior recognition and system integrated control functions, AI-based vehicle interior without the need for separate human management and control It provides a health diagnosis method using a batteryless health band using a micro piezoelectric energy harvesting module that can detect passengers and the environment and automatically control the system in a customized manner.

In addition, the technical problem to be achieved by the present invention is to improve the conventional inconveniences, and to provide a health diagnosis method using a battery-less health band using a micro piezoelectric energy harvesting module that applies a combined fog sterilization and air purification system. will be.

In addition, the technical problem to be achieved by the present invention is to improve the conventional inconveniences. By replacing the existing spray disinfection method with a mist sterilization method, the harmfulness to the human body is reduced, the surface disinfection effect is increased, and the sterilization blind spot (handle Provides a health diagnosis method using a battery-less health band using a micro piezoelectric energy harvesting module that applies a non-harmful, high-performance mist sterilization method that increases quarantine and cleanliness by eliminating surfaces and gaps in chairs, handles, etc. will be.

To solve these problems, the vehicle indoor non-face-to-face quarantine system using an intelligent indoor surveillance camera according to the characteristics of the present invention is,

A vehicle indoor non-face-to-face quarantine system using an intelligent indoor surveillance camera connected to at least one vehicle indoor quarantine device and an administrator terminal through a network, comprising:

A database unit that stores vehicle interior quarantine device information, manager information, vehicle interior information, and quarantine information;

It includes a server that receives vehicle interior information from the vehicle interior quarantine device and controls quarantine.

The server performs a mist sterilization function when no people or animals are detected inside the vehicle, and operates an air purifying function and deodorizing function when a person or animal is detected.

The manager terminal executes an application and controls the vehicle interior quarantine device from outside the vehicle using Bluetooth communication.

The database part,

a vehicle indoor quarantine device information DB that stores the vehicle indoor quarantine device information;

Administrator information DB that stores administrator information;

a vehicle interior information DB that stores the vehicle interior information;

It includes a quarantine information DB that stores quarantine information of the vehicle.

The server is,

an information collection unit that collects vehicle interior information from the vehicle interior quarantine device and stores it in the database unit;

It includes a quarantine control unit that performs a mist sterilization function when people or animals are not detected inside the vehicle, and controls the air purification function and deodorization function to operate when people or animals are detected.

The vehicle interior quarantine device is,

A germ detection unit that detects germs inside the vehicle;

An odor detection unit that detects odor inside the vehicle;

A dust detection unit that detects dust inside the vehicle;

3D camera to detect human presence inside the vehicle;

A mist sterilization unit that sterilizes the vehicle interior with mist;

An air purifying unit that filters the air inside the vehicle and removes odors;

A control unit that transmits information received from the germ detection unit, odor detection unit, dust detection unit, and 3D camera to the manager terminal or server, and operates the mist sterilization unit or air purification unit under the control of the manager terminal or server;

a first communication unit communicating with the manager terminal;

It includes a second communication unit that communicates with the server.

In an embodiment of the present invention, a non-face-to-face quarantine system inside a vehicle using an intelligent indoor surveillance camera is provided, which replaces the manned quarantine method performed directly by workers with a 100% unmanned method, enabling safe and constant indoor quarantine of the vehicle in an untact manner. You can.

In addition, in an embodiment of the present invention, convenience is increased by applying AI-based vehicle interior recognition and system integrated control functions to detect passengers and the environment inside the vehicle based on AI without the need for separate human management and control and customize the system. It is possible to provide a health diagnosis method using a batteryless health band using a micro piezoelectric energy harvesting module that can be automatically controlled.

In addition, in an embodiment of the present invention, a health diagnosis method using a batteryless health band using a micro piezoelectric energy harvesting module can be provided, applying a combined fog sterilization and air purification system.

In addition, in an embodiment of the present invention, by replacing the existing spray disinfection method with a mist sterilization method, the harmfulness to the human body is reduced, the surface disinfection effect is increased, and sterilization blind spots (surfaces and gaps of handles, chairs, handles, etc.) are eliminated. It is possible to provide a health diagnosis method using a batteryless health band using a micro piezoelectric energy harvesting module that applies a high-performance mist sterilization method that is harmless to the human body and increases quarantine and cleanliness capabilities through .

Figure 1 is a configuration diagram of a vehicle indoor non-face-to-face quarantine system using an intelligent indoor surveillance camera according to an embodiment of the present invention.
Figure 2 is a configuration diagram of the vehicle indoor quarantine device of Figure 1.
Figures 3 to 6 are diagrams showing an example for explaining the operation of a non-face-to-face quarantine system indoors in a vehicle using an intelligent indoor surveillance camera according to an embodiment of the present invention.

Below, with reference to the attached drawings, embodiments of the present invention will be described in detail so that those skilled in the art can easily implement the present invention. However, the present invention may be implemented in many different forms and is not limited to the embodiments described herein. In order to clearly explain the present invention in the drawings, parts that are not related to the description are omitted, and similar parts are given similar reference numerals throughout the specification.

Throughout the specification, when a part is said to “include” a certain element, this means that it may further include other elements rather than excluding other elements, unless specifically stated to the contrary.

Figure 1 is a configuration diagram of a vehicle indoor non-face-to-face quarantine system using an intelligent indoor surveillance camera according to an embodiment of the present invention.

Referring to Figure 1, the vehicle indoor non-face-to-face quarantine system using an intelligent indoor surveillance camera according to an embodiment of the present invention is,

A vehicle indoor non-face-to-face quarantine system 100 using an intelligent indoor surveillance camera connected to at least one vehicle indoor quarantine device 300 and an administrator terminal 200 through a network 400, comprising:

A database unit 120 that stores vehicle interior quarantine device information, manager information, vehicle interior information, and quarantine information;

It includes a server 110 that receives vehicle interior information from the vehicle interior quarantine device and controls quarantine.

The server 110 performs a mist sterilization function when people or animals are not detected inside the vehicle, and operates an air purifying function and deodorizing function when a person or animal is detected.

The manager terminal 200 executes an application and controls the vehicle interior quarantine device from outside the vehicle using Bluetooth communication.

The database unit 120,

a vehicle indoor quarantine device information DB 121 that stores the vehicle indoor quarantine device information;

Administrator information DB 122 that stores administrator information;

a vehicle interior information DB 123 that stores the vehicle interior information;

It includes a quarantine information DB 124 that stores quarantine information of the vehicle.

The server 110,

an information collection unit 111 that collects vehicle interior information from the vehicle interior quarantine device and stores it in the database unit;

It includes a quarantine control unit 112 that performs a mist sterilization function when people or animals are not detected inside the vehicle, and controls the air purification function and deodorization function to operate when people or animals are detected.

Figure 2 is a configuration diagram of the vehicle indoor quarantine device of Figure 1.

Referring to Figure 2, the vehicle interior quarantine device 300,

A germ detection unit 310 that detects germs inside the vehicle;

An odor detection unit 320 that detects odor inside the vehicle;

A dust detection unit 330 that detects dust inside the vehicle;

3D camera 340 for detecting a human body inside a vehicle;

A mist sterilization unit (350) that sterilizes the vehicle interior with mist;

An air purifying unit (360) that filters the air inside the vehicle to keep it clean and deodorizes it;

Information received from the bacteria detection unit 310, odor detection unit 320, dust detection unit, and 3D camera 340 is transmitted to the manager terminal 200 or server 110, and the manager terminal 200 Or a control unit 370 that operates the mist sterilizing unit 350 or the air purifying unit 360 according to the control of the server 110;

A first communication unit 380 that communicates with the manager terminal 200 via Bluetooth;

It includes a second communication unit 390 that communicates with the server 110 through a network 400, either wired or wirelessly.

Using the output of the 3D camera 340, the control unit 370 or the server 110 can recognize objects such as people and animals. Specifically, the control unit 370 or the server 110 calculates the location and area of the desired object using an artificial neural network. The positions of facial feature points (contour, eyebrows, eyes, nose, mouth) can be calculated using an artificial neural network. In addition, the presence or absence of an object can be determined using existing image recognition technology.

If necessary, the vehicle interior quarantine device can be used independently, and in this case, the control unit 370 or the administrator terminal 200 may perform the role of the server 110.

The operation of the vehicle indoor non-face-to-face quarantine system using the intelligent indoor surveillance camera 340 with this configuration is explained as follows.

3 to 6 are diagrams illustrating an example of the operation of a non-face-to-face quarantine system indoors in a vehicle using an intelligent indoor surveillance camera 340 according to an embodiment of the present invention.

When power is applied, the vehicle interior quarantine device 300 operates.

Then, the bacteria detection unit 310 detects and outputs bacteria in the vehicle interior, the odor detection unit 320 detects and outputs the odor in the vehicle interior, the dust detection unit detects dust in the vehicle interior and outputs the 3D The camera 340 captures and outputs images from inside the vehicle.

Then, the control unit 370 collects the information received from the bacteria detection unit 310, the odor detection unit 320, the dust detection unit, and the 3D camera 340 from the manager terminal 200 or the server 110. Transmit to unit 111.

Then, the information collection unit 111 stores the collected information in the database unit 120, and the quarantine control unit 112 of the server 110 analyzes the received information and determines whether there are occupants in the vehicle.

The information collection unit 111 stores the vehicle interior information in the vehicle interior information DB 123.

Referring to FIG. 3, the quarantine control unit 112 of the server 110 performs a function of capturing and analyzing passengers' movements.

In addition, 3D analysis of driver behavior is performed using distance information.

And referring to Figure 4, the object is detected using image processing technology using depth data. Specifically, the ToF camera 340 is used to detect objects using image-based object detection technology. In addition, the quarantine control unit 112 of the server 110 may use AI object detection technology that detects only objects that exist within a desired distance using an image combining depth data and IR data, and provides stable object detection after removing ambient light. You may.

Thereafter, when the quarantine control unit 112 of the server 110 determines that there are no objects such as human bodies or animals in the vehicle, it transmits a control command to the control unit 370 to operate the mist sterilization unit 350. The quarantine control unit 112 refers to the vehicle indoor quarantine device information DB and the manager information DB 122 and sends a control command to the corresponding vehicle indoor quarantine device 300 or the manager terminal 200.

Then, the control unit 370 operates the fog sterilization unit 350 according to the control of the quarantine control unit 112 of the manager terminal 200 or the server 110 to disinfect the interior of the vehicle.

The fog sterilization unit 350 may be equipped with a fan operation and a nozzle for disinfecting the interior of the vehicle, and the direction and amount of spraying of the fog for disinfection and disinfection inside the vehicle may be controlled. And, the quarantine control unit 112 stores the quarantine information of the vehicle, including the quarantine implementation time information, in the quarantine information DB 124.

Meanwhile, when the quarantine control unit 112 of the server 110 determines that there is an object, such as a human body or an animal, in the vehicle, it transmits a control command to the control unit 370 to operate the air purifier 360.

Then, the control unit 370 operates the air purifier 360 according to the control of the quarantine control unit 112 of the manager terminal 200 or the server 110. The air cleaning unit 360 purifies fine dust sucked inside the vehicle and discharges it into fresh air, collects harmful substances using a filter, and removes cigarette odor and various unpleasant odors inside the vehicle.

At this time, the control unit 370 may operate the smoke screen sterilizing unit 350 when bacteria in the vehicle interior are detected by the bacteria detection unit 310, and if the detected bacteria are greater than the reference value, the control unit 370 operates the smoke screen sterilizing unit 350 more vigorously. The fan can be operated. An example of implementing the smoke screen sterilizing unit 350 is shown in FIG. 5, but the smoke screen sterilizing unit 350 can be implemented in various external shapes.

In addition, if necessary, the control unit 370 operates the air purifier unit 360 even when fine dust in the vehicle interior is detected by the dust detection unit above a certain standard value or when an odor in the vehicle interior is detected by the odor detection unit 320. ) can be operated, and if the detected amount of fine dust or odor is greater than the standard value, the air purifier 360 can be operated more vigorously. At this time, an example of the air purifier 360 is shown in FIG. 6, but the air purifier can be implemented in various external shapes.

In an embodiment of the present invention, the manned quarantine method performed directly by workers is replaced with a 100% unmanned method, making it possible to perform safe and continuous vehicle interior quarantine in an untact method.

In addition, in an embodiment of the present invention, convenience is increased by applying AI-based vehicle interior recognition and system integrated control functions to detect passengers and the environment inside the vehicle based on AI without the need for separate human management and control and customize the system. Automatic control is possible.

Additionally, in embodiments of the present invention, a combined fog sterilization and air purification system can be applied.

In addition, in an embodiment of the present invention, by replacing the existing spray disinfection method with a mist sterilization method, the harmfulness to the human body is reduced, the surface disinfection effect is increased, and sterilization blind spots (surfaces and gaps of handles, chairs, handles, etc.) are eliminated. It is possible to apply a high-performance mist sterilization method that is harmless to the human body and increases quarantine and cleanliness capabilities.

The embodiments of the present invention described above are not only implemented through devices and methods, but may also be implemented through a program that realizes the function corresponding to the configuration of the embodiment of the present invention or a recording medium on which the program is recorded. The implementation can be easily implemented by an expert in the technical field to which the present invention belongs based on the description of the embodiments described above.

Although the embodiments of the present invention have been described in detail above, the scope of the present invention is not limited thereto, and various modifications and improvements made by those skilled in the art using the basic concept of the present invention defined in the following claims are also possible. It falls within the scope of rights.

Claims (6)

A vehicle indoor non-face-to-face quarantine system using an intelligent indoor surveillance camera connected to at least one vehicle indoor quarantine device and an administrator terminal through a network, comprising:
A database unit that stores vehicle interior quarantine device information, manager information, vehicle interior information, and quarantine information;
A server that receives vehicle interior information from the vehicle interior quarantine device and controls quarantine,
The server uses information received from the germ detection unit, odor detection unit, dust detection unit, and 3D camera to determine whether there are occupants inside the vehicle,
The server performs the fog sterilization function when there are no occupants inside the vehicle, and operates the air purification and deodorization functions when there are occupants.
The server is characterized in that it performs a mist sterilization function when germs in the vehicle interior are detected by the germ detection unit when the air purification function and deodorization function are in operation.
Non-face-to-face quarantine system inside a vehicle using an intelligent indoor surveillance camera. delete According to paragraph 1,
The manager terminal executes an application and controls the vehicle indoor quarantine device from outside the vehicle using Bluetooth communication.
Non-face-to-face quarantine system inside a vehicle using an intelligent indoor surveillance camera. According to paragraph 1,
The database part,
a vehicle indoor quarantine device information DB that stores the vehicle indoor quarantine device information;
Administrator information DB that stores administrator information;
a vehicle interior information DB that stores the vehicle interior information;
Containing a quarantine information DB that stores quarantine information of the vehicle
Non-face-to-face quarantine system inside a vehicle using an intelligent indoor surveillance camera. delete According to paragraph 1,
The vehicle interior quarantine device is,
A germ detection unit that detects germs inside the vehicle;
An odor detection unit that detects odor inside the vehicle;
A dust detection unit that detects dust inside the vehicle;
3D camera to detect human presence inside the vehicle;
A mist sterilization unit that sterilizes the vehicle interior with mist;
An air purifying unit that filters the air inside the vehicle and removes odors;
A control unit that transmits information received from the germ detection unit, odor detection unit, dust detection unit, and 3D camera to the manager terminal or server, and operates the mist sterilization unit or air purification unit under the control of the manager terminal or server;
a first communication unit communicating with the manager terminal;
A vehicle indoor non-face-to-face quarantine system using an intelligent indoor surveillance camera including a second communication unit that communicates with the server.

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