KR20180062964A - Meteorological observation method and meteorological observation system using mobile lidar - Google Patents

Abstract

Provided is an apparatus including a processor. A method for observing weather comprises: a step of receiving a first signal associated with a location of a moving object, receiving a second signal associated with a weather state and an air state at the location of a moving object; a step of calculating a position of the moving object based on the first signal, determining the weather state and the air state corresponding to the calculated position based on the second signal; and a step of providing services associated with the weather and air states.

Description

TECHNICAL FIELD [0001] The present invention relates to a meteorological observation method and a meteorological observation method using a mobile rider,

The present invention relates to a weather observation system, and more particularly, to a weather observation method and a weather observation system using a plurality of mobile riders.

In recent years, changes in the atmospheric environment caused by abnormal weather such as localized heavy rains and fine dusts have had a great impact on human life and health. In addition, economic and social losses are increasing due to changes in the weather and atmospheric environment. Therefore, there is a need for a technique for accurately acquiring weather information and waiting information in real time.

A rider is a laser-based radar used to acquire weather and atmospheric information. Riders can detect objects using lasers. The wavelength of the electromagnetic wave used by the rider is shorter than the wavelength of the electromagnetic wave used by the radar. Thus, the rider can sense fine particles that can not be detected by the radar.

However, the detection distance of the rider is significantly shorter than the detection distance of the radar. Therefore, there is a need for a technique for acquiring weather information and atmospheric information for a wide area using a rider.

The present invention can provide a weather observation method and a weather observation system for acquiring weather information and atmospheric information from a plurality of mobile riders.

A weather observation method according to an embodiment of the present invention can be provided using an apparatus including a processor. The meteorological observation method includes receiving a first signal related to a position of a moving object, receiving a second signal related to a weather condition and a waiting condition at a position of the moving object, calculating a position of the moving object based on the first signal, Determining a wake up state and a wait state corresponding to the calculated position based on the second signal, and providing a service related to the wake up state and the standby state.

A weather observation system according to an embodiment of the present invention may include a communication device and a processor. The communication device can receive a first signal indicating information related to the position of the moving object and a second signal indicating the first weather information and the first waiting information at the position of the moving object. The processor refers to the first weather information and the first wait information obtained based on the first signal and the second signal to determine a weather state and a standby state corresponding to the position of the moving object, Can be provided.

According to the embodiment of the present invention, weather information and atmospheric information for a wide area can be obtained by using a plurality of mobile riders.

1 is a block diagram showing a weather observation system according to an embodiment of the present invention.
Fig. 2 is a conceptual view showing an exemplary configuration of the moving body of Fig. 1;
3 is a block diagram illustrating an exemplary electronic device for implementing the server of FIG.
Fig. 4 is a conceptual diagram showing an exemplary configuration of the weather raider of Fig. 1; Fig.
Fig. 5 is a conceptual diagram showing an exemplary configuration of the mobile rider of Fig. 1;
FIG. 6 is a conceptual diagram showing an exemplary configuration of the mobile rider of FIG. 1;
7 is a flow chart showing an exemplary operation of the weather observation system of FIG.

In the following, embodiments of the present invention will be described in detail and in detail so that those skilled in the art can easily carry out the present invention.

It is to be understood that, in the context of this specification, when reference is made to a configuration including certain elements, or when it is mentioned that a process includes certain steps, other elements or other steps may be included. In other words, the terms used herein are for the purpose of describing specific embodiments only, and are not intended to limit the concept of the present invention. Further, the illustrative examples set forth to facilitate understanding of the invention include its complementary embodiments.

The terms used in this specification are meant to be understood by those of ordinary skill in the art to which this invention belongs. Commonly used terms should be construed in a manner consistent with the context of this specification. Also, terms used in the specification should not be construed as being excessively ideal or formal in nature unless the meaning is clearly defined. BRIEF DESCRIPTION OF THE DRAWINGS Fig.

The term " weather information " is used herein. In the following description, the weather information may mean information related to the weather phenomenon. The term " waiting information " is used herein. In the following description, the waiting information may mean information related to the atmospheric environment. The term " location information " is used herein. In the following description, the position information may be represented by coordinates or the like to indicate information indicating the position of a specific object.

1 is a block diagram showing a weather observation system according to an embodiment of the present invention.

1, a weather observation system 100 may include a network layer 10, mobiles 110 to 140, a weather riser 150, Each of the mobile bodies 110 to 140 may include a mobile rider and a location information device. Each of the mobile bodies 110 to 140 may further include components other than the mobile rider and the location information device (see FIG. 2). As an example, the mobile 110 may include a mobile rider 111 and a location information device 112. The server 160 may include a processor 161 and a memory 162. The server 160 may further include components other than the processor 161 and the memory 162 (see FIG. 3).

Although FIG. 1 illustrates a weather observing system 100 that includes four moving objects 110 through 140, the present invention may include all embodiments of a weather observing system 100 including one or more moving objects. Hereinafter, the moving body 110 included in the weather observation system 100 will be described. The configuration and operation of each of the mobile units 120 to 140 are similar to the configuration and operation of the mobile unit 110, and therefore description thereof will be omitted. Although the mobile body 110 including the mobile rider 111 is described with reference to FIG. 1, the present invention includes all embodiments of the mobile body 110 including at least one of various kinds of sensors for acquiring weather information can do.

The moving body 110 can emit a laser by the mobile rider 111. [ The moving body 110 can receive the laser reflected from the specific region by the mobile rider 111. [ The moving body 110 can acquire weather information based on the laser received by the mobile rider 111. [ By way of example, the mobile rider 111 may include at least one of a rotatable mobile rider and an arrayed mobile rider. With reference to Fig. 4, an exemplary structure and operation of a rotatable mobile rider will be described. With reference to Fig. 5, an exemplary structure and operation of the arrayed mobile rider will be described. By way of example, the mobile 110 may include an unmanned mobile object such as a dron and an attracting mobile object such as an automobile and a bus.

For example, the mobile rider 111 may emit a laser beam into a space (hereinafter referred to as a detection space) within a reference distance from the moving object 110. [ The mobile rider 111 can receive the reflected laser at a specific area within the detection space. The mobile body 110 can detect the detection space including the position of the mobile body 110 by the mobile rider 111. [

The moving body 110 can acquire weather information of the detection space based on the laser received by the processor (see FIG. 2). By way of example, the weather information may include information relating to precipitation and snowfall. By way of example, the mobile 110 can acquire atmospheric information in the detection space by a method similar to the method of acquiring weather information. By way of example, the atmospheric information may include information related to fine dust. The moving object 110 can move the target section repeatedly (for example, in the case of a bus). The moving object 110 can repeatedly acquire weather information and waiting information of a specific section. Accordingly, the moving object 110 can acquire accurate weather information and waiting information for the object section. The moving body 110 may generate a signal indicating weather information and waiting information by a processor. The moving body 110 may include a position information device 112. [ By way of example, the location information device may comprise a GPS device or the like. The mobile 110 can acquire positional information by the positional information device 112. By way of example, the location information may include information related to the location of the mobile 110. The moving object 110 can generate a signal indicating position information by the position information device 112. [

The mobile 110 may exchange information with the server 160 through the network layer 10. By way of example, the mobile 110 may exchange encrypted information via the network layer 10. The mobile 110 may include a communication device for exchanging communication signals with the network layer 10 (see FIG. 2). The mobile 110 may send signals to the network layer 10 indicating the information obtained by the mobile rider 111, by the communication device. As an example, the mobile 110 may transmit signals indicative of weather information, standby information, and location information to the network layer 10.

The meteorological rider 150 can emit a laser to acquire weather information and receive a reflected laser at a specific area. The weather riser 150 can detect the space within the reference distance from the weather riser 150. [ The weather riser 150 can acquire weather information in the detection space. By way of example, the weather information may include information relating to precipitation and snowfall. The meteorological rider 150 can acquire the atmospheric information in the detection space. By way of example, the atmospheric information may include information related to fine dust.

The weather riser 150 can exchange information with the server 160 through the network layer 10. As an example, the weather riser 150 may include a communication device (not shown) for exchanging communication signals with the network layer 10. The weather riser 150 can transmit, by the communication device, a signal indicating the acquired information to the network layer 10. As an example, the weather riser 150 can transmit a signal indicating the weather information and the standby information to the network layer 10.

The output of the laser radiated by the vapor rider 150 may be greater than the output of the laser radiated by the mobile rider 111. [ The light receiving lens of the weather rider 150 may be larger than the light receiving lens of the mobile rider 111. [ Therefore, the reference distance of the weather raider 150 may be longer than the reference distance of the mobile rider 111. [

The detection space of the weather rider 150 may be wider than the detection spaces of the mobile riders included in the mobile bodies 110 to 140. [ Referring to Fig. 4, an exemplary configuration and operation of the vapor rider 150 will be described. Although FIG. 1 illustrates a weather observing system 100 that includes one weather rider 150, the present invention may include all embodiments of a weather observing system 100 that includes one or more weather riders.

The server 160 may receive signals representing weather information, waiting information, and location information via the network layer 10. The server 160 may receive signals from the moving objects 110 to 140. [ Server 160 may receive signals from wake-up rider 150. [ The server 160 may obtain weather information, atmospheric information, and location information from the received signals.

The server 160 can acquire new weather information and waiting information based on the weather information and the waiting information obtained from the moving bodies 110 to 140 and the weather riser 150. [ Hereinafter, an exemplary method of acquiring new weather information and standby information by the server 160 will be described.

The vapor rider 150 can emit a laser at a fixed location. Thus, the detection space of the weather ladder can be limited by obstacles such as buildings. The moving object can move in a space where the detection of the weather rider 150 is restricted (for example, an alley between buildings). The mobile riders of the moving bodies 110 to 140 can emit the laser in the space where detection of the vapor rider 150 is restricted. The mobile riders of the moving bodies 110 to 140 can detect a space where detection by the weather raider 150 is restricted. Accordingly, the detection spaces of the moving bodies 110 to 140 may include a space not included in the detection space of the vapor rider 150 (hereinafter referred to as a first space).

The moving objects 110 to 140 can acquire weather information and waiting information for the first space. Accordingly, the server 160 can obtain the weather information and the atmospheric information for the first space from the mobile units 110 to 140.

Alternatively, the detection spaces of the moving objects 110 to 140 may include a space included in the detection space of the vapor rider 150 (hereinafter referred to as a second space). Therefore, the server 160 can acquire weather information and waiting information for the second space from both the moving objects 110 to 140 and the weather rider 150. [ The server 160 uses the weather information and the atmospheric information for the second space obtained from the moving objects 110 to 140 to correct the weather information and the atmospheric information for the second space acquired from the weather riser 150 . The server 160 can acquire new weather information and standby information for the second space by the correction.

However, the detection spaces of the moving bodies 110 to 140 may be substantially the same as the detection spaces of the weather raider 150. In this case, the server 160 can correct the weather information and the atmospheric information for the entire detection space of the weather raider 150 using the weather information and the atmospheric information about the detection space of the moving bodies 110 to 140 . Accordingly, the server 160 can acquire new weather information and waiting information for the entire detection space of the weather raider 150 by the correction.

The server 160 can determine the wakeup state and the standby state using the obtained information. By way of example, the server 160 can acquire positional information of the mobile 110 based on a signal received from the mobile 110 by the processor 161. [ The server 160 can calculate the position of the mobile 110 based on the positional information by the processor.

The processor 161 can acquire weather information in the detection space of the moving object 110 based on signals received from the moving object 110. [ The processor 161 can determine the weather condition in the detection space of the mobile 110 using the obtained information. The mobile bodies 110 to 140 may be located in different spaces, respectively. Accordingly, the processor 161 can determine the weather conditions corresponding to the different detection spaces of the moving objects 110 to 140, respectively.

By way of example, the processor 161 may obtain weather information based on signals received from the weather riser 150. The position of the weather rider 150 can be fixed. The memory 162 may store location information of the weather rider 150. [ The processor 161 may obtain position information of the weather riser 150 stored in the memory 162. [ The server 160 can determine the weather condition in the detection space of the weather riser 150 based on the obtained information.

The server 160 acquires the wait information based on the signals received from the moving object 110 and the wakeup rider 150 and outputs the wait states based on the obtained wait information You can decide.

The server 160 can provide various services, based on the determined weather conditions and waiting states, by the processor 161. [ The determined weather states and standby states are the weather information and the atmospheric information obtained from the moving objects 110 to 140, the weather information and the atmospheric information obtained from the weather raider 150, and the new weather information And new standby information. The server can provide the service based on the obtained information.

By way of example, server 160 may provide services 160a and services 160b. By way of example, service 160a may be associated with a weather condition. As an example, the server 160 may provide weather information (e.g., information on precipitation and snowfall) corresponding to a specific location to a platform for providing weather information. Service 160b may be associated with a wait state. For example, the server 160 may provide the platform for providing the weather information with standby information (e.g., information regarding the fine dust concentration) corresponding to the specific location.

The detection spaces of the mobile bodies 110 to 140 may be different. Thus, the weather conditions determined based on the signals received from the moving objects 110 to 140 may be based on the weather information corresponding to the different detection spaces. The greater the number of moving objects included in the weather observation system 100, the more the weather observation system 100 can determine the weather state based on weather information corresponding to a large number of detection spaces. Accordingly, the meteorological observation system 100 can determine a weather condition corresponding to a wide space by a plurality of moving objects.

The server 160 can acquire local weather information corresponding to the detection spaces of the moving objects 110 to 140 by the signals received from the moving objects 110 to 140, respectively. The server 160 may acquire weather information by a laser emitted by each of the moving objects 110 to 140 located at various places.

Fig. 2 is a conceptual view showing an exemplary configuration of the moving body of Fig. 1;

The mobile 110 may include a mobile rider 111, a location information device 112, a security module 113, a communication device 114, and a processor 115. The mobile 110 may not include one or more of the components shown in FIG. The mobile 110 may include one or more components not shown in FIG.

The mobile rider 111 may generate a laser having a specific wavelength and a specific intensity. The mobile rider 111 can emit a laser to a specific area within the detection space. The emitted laser can be reflected in a specific area. The mobile rider 111 can receive the reflected laser in a specific area. The mobile rider 111 may generate a signal indicative of information related to the wavelength and intensity of the reflected laser. 4 and 5, an exemplary configuration and operation of the mobile rider 111 is described.

The position information device 112 may receive a signal related to the position of the moving object 110 from a satellite or the like. The position information device 112 may generate a signal indicating position information of the mobile 110 based on the received signal.

The security module 113 may process or store data requiring a high level of security. By way of example, the security module 113 may operate in a secure mode for providing security functions. The security module 113 may perform operations for the security function in the secure mode. The security module 113 may perform operations for encryption and decryption. The security module 113 may generate a key used for encryption and decryption.

As an example, the security module 113 may obtain location information based on the signal generated by the location information device 112. The security module 113 may generate a key for encrypting and decrypting the location information of the mobile terminal 110. [ The security module 113 can encrypt the location information using the generated key.

The communication device 114 may include a transmitter and a receiver. Mobile 110 may transmit and / or receive signals for communication with server 160 of FIG. 1 by communication device 114. As an example, the mobile device 110 may transmit a signal indicating the weather information and the standby information to the server 160 via the network layer 10 by the communication device 114. By way of example, the mobile 110 may transmit, by the communications device 114, a signal representing the key generated by the security module 113 to the server 160 via the network layer 10. By way of example, the mobile 110 may transmit, by the communication device 114, a signal representing the encrypted location information generated by the security module 113 to the server 160 via the network layer 10.

The processor 115 may control the overall operations of the components included in the mobile object 110. [ By way of example, the processor 115 may control the operation of the mobile rider 111 and the location information device 112. The processor 115 may be one of a general purpose processor, a workstation processor, an application processor, or the like. The processor 115 may include one processor core or a plurality of processor cores (Multi-Core). For example, the processor 115 may include a multi-core such as a dual-core, a quad-core, and a hexa-core.

The processor 115 may obtain the waiting information and the weather information based on the laser received by the mobile rider 111. [ For example, based on the signals generated by the mobile rider 111, the wavelength and intensity of the received laser may be calculated. The processor 115 may calculate precipitation and fine dust concentration based on the calculated values.

3 is a block diagram illustrating an exemplary electronic device for implementing the server of FIG.

3, the electronic device 500 includes a processor 510, a memory 520, a storage 530, a security module 540, a communication device 550, a user interface 560, . ≪ / RTI > The electronic device 500 may further include other components (e.g., power supplies, etc.) not shown in FIG. Alternatively, the electronic device 500 may not include one or more of the components shown in FIG. The processor 161 of FIG. 1 may include a processor 510. The memory 162 of FIG. 1 may include a memory 520.

The processor 510 may control the overall operations of the electronic device 500. By way of example, processor 510 may process weather information and atmospheric information received by a plurality of signals, and may determine a wake state and a wait state based on the processed information. By way of example, processor 510 may be one of a general purpose processor, a workstation processor, an application processor, or the like. The processor 510 may include one processor core or a plurality of processor cores (Multi-Core). For example, the processor 510 may include a multi-core such as a dual-core, a quad-core, and a hexa-core.

The memory 520 may store data to be processed or processed by the processor 510. Data to be processed or processed by the processor 510 may be associated with meteorological information and atmospheric information. For example, the memory 520 may be a volatile memory such as SRAM (Static Random Access Memory), DRAM (Dynamic RAM), SDRAM (Synchronous DRAM), or a flash memory, a PRAM (RAM), Resistive RAM (ReRAM), Ferro-electric RAM (FRAM), and the like. Alternatively, the memory 520 may comprise heterogeneous memories.

The storage 530 can store data regardless of the power supply. By way of example, the storage 530 may store data associated with weather information and waiting information. For example, the storage 530 may be a storage medium including a nonvolatile memory such as a hard disk drive (HDD), a solid state drive (SSD), a secure digital (SD) card, ).

The security module 540 may process or store data that requires a high level of security. By way of example, the security module 540 may store data relating to keys received by the communication device 550 via the network layer 10. By way of example, the security module 540 may store encrypted location information of the mobile 110. The security module 540 may decrypt the encrypted location information using the stored key.

The communication device 550 may include a transmitter and a receiver. The electronic device 500 may communicate with other electronic devices by the communication device 550 to transmit and / or receive signals indicative of the data. By way of example, the communication device 550 may receive signals representing weather information, standby information, and location information from the moving objects 110 to 140 via the network layer 10. The communication device 550 may receive signals representing weather information and standby information from the weather riser 150 via the network layer 10.

The user interface 560 may communicate input / output of commands or data between the user and the electronic device 500. As an example, the user interface 560 may be an input device such as a keyboard, a mouse, a touch screen, a scanner, a joystick, a voice recognition device, a motion recognition device or an eye recognition device, and / or a monitor, display device, projector, Such as an output device of a < / RTI >

The bus 570 may provide a communication path between components of the electronic device 500. By way of example, processor 510, memory 520, storage 530, security module 540, communication device 550, and user interface 560 may exchange data with one another via bus 570 . The bus 570 may be configured to support various types of communication formats used in the electronic device 500.

Fig. 4 is a conceptual diagram showing an exemplary configuration of the weather raider of Fig. 1; Fig.

The meteorological rider 150 of Fig. 1 may include the meteorological rider 200 of Fig. The vapor rider 200 may include a laser source 211, a collimator 212, a light receiving unit 221, an optical filter 222, a high sensitivity receiving unit 223, and an analysis system 230. 4, the analytical system 230 is shown as being located external to the weather riser 200, but the present invention can include all embodiments of the weather riser 200 including the analytical system 230 therein . Hereinafter, the operation of the vapor rider 200 will be described.

The laser source 211 may generate a laser. The laser source 211 may generate a laser in the form of at least one of a pulse and a continuous wave. The laser generated by the laser source 211 may be emitted through the collimator 212. The collimator 212 is capable of controlling the transmission beam width of the laser generated by the laser source 211. The collimator 212 may include a lens or the like for controlling the beam width of the laser beam to be emitted.

The vapor riser 200 can emit the laser through the collimator 212 into the region 20. [ The laser can be reflected in the region 20. The laser can be received from the area 20 to the weather riser 200.

The laser can be received by the light receiving section 221. [ The light receiving section 221 may include at least one of a reflector and a lens to receive a laser beam to be received. The light receiving unit 221 can receive light components other than the laser reflected from the area 20, that is, the background light. The vaporizer rider 200 may include an optical filter 222 to filter the background light. The intensity of the background light can be reduced by the optical filter 222. [ The laser received by the light receiving unit 221 can be received by the high sensitivity receiving unit 223 through the optical filter 222. [

Sensitive receiver 223 can transmit a signal associated with the detected laser to the analysis system 230. [ The analysis system 230 may obtain information related to the region 20 based on the received signal. By way of example, the analysis system 23 may obtain the weather information and the atmospheric information of the area 20.

Fig. 5 is a conceptual diagram showing an exemplary configuration of the mobile rider of Fig. 1;

The mobile rider 111 of FIG. 1 may include the rotatable mobile rider 300 of FIG. Referring to FIG. 5, the rotatable mobile rider 300 may include a transmit / receive lens 310 and a detection area 320.

The rotatable mobile rider 300 can emit a laser through the transmission and reception lens 310. [ The rotatable mobile rider 300 may emit lasers sequentially at a plurality of points in the area 30. [ Lasers can be reflected at points within the region 30, respectively. The lasers reflected at the respective points within the region 30 can be received in the detection region 320 through the transmission and reception lens 310. [

By way of example, a rotatable mobile rider 300 may emit a laser at point 31. The laser reflected at the point 31 can be received at the detection point 321 in the detection region 320 through the transmission and reception lens 310. [ The laser reflected at the point 31 may be associated with the weather information and the atmospheric information of the area 30. [

When the lasers are sequentially emitted to all the points within the region 30, the rotatable mobile rider 300 may rotate about the rotational axis 330. The rotatable mobile rider 300 may then radiate the laser to other areas. By way of example, a rotatable mobile rider 300 may emit a laser into region 32 and region 33.

As described with reference to FIG. 2, the rotatable mobile rider 300 may generate a signal indicative of information associated with the laser received in the detection region 320. By way of example, the rotatable mobile rider 300 may generate a signal indicative of information related to the wavelength and intensity of the laser received at the detection point 321 in the detection region 320. The processor 115 may obtain weather information and atmospheric information based on signals generated by the rotatable mobile rider 300. [

FIG. 6 is a conceptual diagram showing an exemplary configuration of the mobile rider of FIG. 1;

The mobile rider 111 of FIG. 1 may include the arrayed mobile rider 400 of FIG. Referring to FIG. 6, the array type mobile rider 400 may include a transmit / receive lens 410 and a detection area 420.

The array-type mobile rider 400 can emit a laser through the light receiving lens 410. The arrayed mobile rider 400 may emit lasers at multiple points in the region 40 substantially simultaneously. Lasers may be reflected at points within the region 40, respectively. The lasers respectively reflected at the points within the region 40 can be received in the detection region 420 through the transmission and reception lens 410. [

By way of example, the arrayed mobile rider 400 may emit a laser at point 41. The laser reflected at the point 41 can be received at the detection point 421 in the detection region 420 through the transmission and reception lens 410. [ The laser reflected at point 41 may be associated with weather information and atmospheric information in region 40.

As described with reference to Fig. 2, the arrayed mobile rider 400 may generate a signal indicative of information associated with the received laser in the detection region 420. [ As an example, the arrayed mobile rider 400 may generate a signal indicative of information related to the wavelength and intensity of the laser received at the detection point 421 in the detection region 420. The processor 115 may obtain weather and air information based on the signals generated by the arrayed mobile rider 400.

7 is a flow chart showing an exemplary operation of the weather observation system of FIG.

1 and 7, a weather observation system 100 including the moving object 110 is described, but the present invention can include all embodiments of a weather observation system including a plurality of moving objects. Since the operations of the plurality of mobile bodies are similar to those of the mobile body 110, the description will be omitted.

In operation S100, the mobile 110 can acquire weather information and standby information in the detection space by the mobile rider 111. [ The mobile rider 111 may emit a laser to obtain weather information and atmospheric information. The mobile rider 111 can receive the laser reflected in a specific area. The moving object 110 can acquire weather information and atmospheric information based on the received laser. By way of example, the weather information may include information relating to rainfall or snowfall. By way of example, the atmospheric information may include information relating to the fine dust concentration and the like.

In S110 operation, the moving object 110 can acquire position information by the position information device 112. [ By way of example, the location information device 112 may include a GPS device or the like. The location information may include information related to the location of the mobile 110.

In S120 operation, the mobile 110 may transmit to the server 160 a signal indicating weather information, standby information, and location information obtained in operation S110. As described with reference to FIG. 2, the location information of the mobile 110 may be encrypted and transmitted.

In S130 operation, the weather riser 150 can obtain the weather information and the atmospheric information in the detection space.

In operation S140, the weather riser 150 can transmit to the server 160 a signal indicating the weather information and the standby information obtained in operation S130.

Although it has been described with reference to FIG. 7 that the operations from S100 to S120, S130, and S140 are performed in order, the present invention may also be applied to the case where the operations S100 to S120, S130, And may include all embodiments of the observation system 100.

In operation S150, the server 160 may acquire weather information and atmospheric information based on the signals received in the operations S120 and S140, and may determine the weather condition and the atmospheric condition based on the obtained weather information and the atmospheric information .

In operation S160, the server 160 may provide a service based on the waiting state and the weather state determined in operation S150. As an example, the server 160 may provide the platform for providing weather information with information about a weather state and a standby state.

The above description is specific embodiments for carrying out the present invention. The present invention will also include embodiments that are not only described in the above-described embodiments, but also can be simply modified or changed easily. In addition, the present invention will also include techniques that can be easily modified and implemented using the embodiments. Therefore, the scope of the present invention should not be limited to the above-described embodiments, but should be determined by the claims equivalent to the claims of the present invention as well as the following claims.

100: Weather observation system

Claims (10)

A method for observing a gas phase using an apparatus including a processor,
Receiving, by the processor, a first signal associated with a location of a mobile object, and receiving a second signal associated with a first wake state and a first standby state at the location of the mobile object;
Calculating, by the processor, the position of the moving body based on the first signal;
Determining by the processor, based on the second signal, the first wake up state and the first wait state corresponding to the calculated position; And
And providing, by the processor, a service associated with the determined wake up state and the determined wait state. The method according to claim 1,
Wherein the second signal is associated with the first wake state and the second wait state at the location in the target section that is repeatedly detected by the mobile. The method according to claim 1,
Wherein receiving the second signal comprises receiving the first wake up state of the space detected by the mobile rider of the mobile object and the second signal associated with the first wait state. The method of claim 3,
Wherein the mobile rider comprises at least one of a rotatable mobile rider and an arrayed mobile rider. The method according to claim 1,
Receiving, by the processor, a third signal associated with a second wake up state and a second wait state at a location of a vaporizer; And
Further comprising, by the processor, determining, based on the third signal, the second wake state and the second wait state corresponding to the position of the vapor ladder. 6. The method of claim 5,
Wherein the step of determining the first wake-up state and the first waiting state comprises the steps of: determining, based on the second signal, weather information and waiting information for the first detection space including the position of the mobile body Comprising:
Wherein the step of determining the second wake-up state and the second wait state includes a step of determining, based on the third signal, the weather information on the second detection space including the position of the wake- , ≪ / RTI >
Wherein the first detection space includes a first space included in the second detection space and a second space not included in the second detection space. The method according to claim 6,
The processor corrects the weather information and the waiting information for the second detection space by using the weather information and the waiting information for the first detection space to generate new weather information and the weather information for the first space, Acquiring new waiting information; And
Further comprising, by the processor, determining a third wake state and a third wait state corresponding to the first space based on the new weather information and the new atmospheric information. 8. The method of claim 7,
And providing, by the processor, the service based on the new weather information and the new atmospheric information. A communication device configured to receive a first signal indicative of information relating to the position of the moving object and a second signal indicative of the first wake-up information and the first waiting information at the position of the moving object; And
Determines a wake-up state and a standby state corresponding to the position of the mobile body with reference to the first wake-up information and the first wait information obtained based on the first signal and the second signal, And a processor configured to provide a service associated with a standby state. 10. The method of claim 9,
The communication device receives the second weather information at the position of the vaporizer and the third signal indicating the second wait information,
Wherein the processor acquires the second weather information and the second atmospheric information based on the third signal and generates the second weather information and the second atmospheric information using the first weather information and the first atmospheric information, Acquire new weather information and new atmospheric information by correcting the information, and determine the weather state and the atmospheric state based on the new weather information and the new atmospheric information.

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