Apparatus and method for processing information of UAV

Abstract

The present invention includes an information management unit for receiving and managing status information from an unmanned aerial vehicle; a display unit for receiving the status information from the information management unit and displaying it as a visual element, and a display setting unit for setting the method of displaying the visual elements by the display unit in accordance with compatibility with the real-time operating system; and can process the status information provided by the unmanned aerial vehicle so that it can be visually displayed in an embedded system.

Description

Technology Field

[0001] The present invention relates to an unmanned aerial vehicle information display device and an unmanned aerial vehicle information display method, and more specifically, to an unmanned aerial vehicle information processing device and an unmanned aerial vehicle information processing method capable of processing status information received from an unmanned aerial vehicle so that it can be visually displayed in an embedded system. Background Technology

[0002] Generally, an Unmanned Aerial Vehicle (UAV) is an aircraft that performs flight missions by receiving control commands via wireless communication without a pilot on board. In the past, the role of UAVs was primarily limited to reconnaissance missions, but recently, UAVs are being used to carry out a variety of military missions, including precision ground attack, air combat, communications relay, and electronic warfare.

[0003] At this time, the control system (UCS: UAV Control System) that controls the unmanned aerial vehicle can control it by transmitting control commands to the unmanned aerial vehicle and receive status information from the unmanned aerial vehicle and display it on a display. For example, the control system can display the status information of the unmanned aerial vehicle using X-Window and a web browser in accordance with the STANAG 4586 standard. Therefore, the user of the control system can control the unmanned aerial vehicle to perform a mission while checking the status information of the unmanned aerial vehicle through the display.

[0004] However, while X-Window and web browsers can be used seamlessly on operating systems such as Windows or Linux, there are difficulties in using them on Real-Time Operating Systems (RTOS) in embedded systems. Consequently, control systems equipped with embedded systems may not be able to properly display the status information of unmanned aerial vehicles. Prior art literature

[0005] (Patent Document 0001) KR 2014-0137826 A The problem to be solved

[0006] The present invention provides an unmanned aerial vehicle information processing device and an unmanned aerial vehicle information processing method capable of processing status information received from an unmanned aerial vehicle so that it can be visually displayed in an embedded system.

[0007] The present invention provides an unmanned aerial vehicle information processing device and an unmanned aerial vehicle information processing method that can easily allow a user of an embedded system to check status information provided by an unmanned aerial vehicle. means of solving the problem

[0008] The present invention includes: an information management unit for receiving and managing status information from an unmanned aerial vehicle; a display unit including a real-time operating system for receiving the status information from the information management unit and displaying it as a visual element; and a display setting unit for setting the method by which the display unit displays the visual elements in accordance with compatibility with the real-time operating system.

[0009] The above real-time operating system is compatible with a first standard that standardizes the display configuration of a controller controlling the above unmanned aerial vehicle, and the display setting unit includes: a first generating unit for generating a first setting file for setting a screen on which the display unit will display visual elements; a second generating unit for generating a second setting file for setting the types of visual elements to be displayed on the screen and the layout in which the visual elements are arranged according to the first standard; and a transmission unit for transmitting the first setting file and the second setting file to the display unit.

[0010] The first generation unit checks the performance of the display unit and generates the first setting file by setting at least one of the resolution of the screen to display visual elements, the number of colors expressed on the screen, and the font displayed on the screen so as not to exceed the checked performance.

[0011] The second generation unit comprises: a production unit for producing visual elements corresponding to each state information that the unmanned aerial vehicle can provide, according to the first standard; and a storage unit for generating and storing the second setting file for setting the display unit to display the visual elements in accordance with the method by which the production unit produced the starting elements.

[0012] The above display unit includes: a display unit that displays the screen; a screen configuration unit for generating a screen to be displayed by the display unit according to the first configuration file and generating visual elements to be displayed on the screen of the display unit according to the second configuration file; and an update unit for updating visual elements corresponding to the corresponding status information on the screen according to status information received from the information management unit.

[0013] The screen of the display unit includes a touchscreen that a user can touch, and the display unit further includes a transmission unit that detects a touch event of the touchscreen and transmits it to the information management unit.

[0014] The above information management unit is equipped with multiple units to manage status information of different unmanned aerial vehicles, and the above display unit has multiple screens to display status information received from the multiple information management units.

[0015] The above display unit further includes a communication request unit for generating a request message for communicating with the above information management unit according to a second standard that standardizes the control method of an unmanned aerial vehicle and transmitting it to the above information management unit, and the above first standard includes a standard for the communication method of the above display unit and the above information management unit, and when the above information management unit receives the above request message, it configures a server for communicating according to the above first standard, generates connection information for connecting to the server, and transmits it to the display unit that transmitted the above request message.

[0016] The first standard above includes ARINC 661, and the second standard above includes STANAG 4586.

[0017] The information management unit is mounted on either the unmanned aerial vehicle or a controller operated on the ground or in the air to control the unmanned aerial vehicle, the display unit is mounted on the controller, and the information management unit and the display unit communicate via wired or wireless means.

[0018] The present invention comprises: a communication process in which an information management unit for managing status information of an unmanned aerial vehicle communicates with a display unit that includes a real-time operating system and displays the status information as visual elements; a setting process in which the display unit sets the method of displaying visual elements to be compatible with the real-time operating system; and a display process in which visual elements are displayed in the display unit according to the method set in the setting process, and the visual elements displayed in the display unit are updated according to the status information.

[0019] The above communication process includes: a process of generating a request message for communicating with the information management unit in the display unit and transmitting it to the information management unit; a process of configuring a server in the information management unit to communicate with the display unit that transmitted the request message; a process of generating connection information for connecting to the server and transmitting it to the display unit that transmitted the request message; and a process of the display unit connecting to the server generated by the information management unit according to the connection information.

[0020] The above setting process includes: a process of generating a first setting file for setting a screen on which the display unit will display visual elements; a process of generating a second setting file for setting the types of visual elements to be displayed on the screen and the layout in which the visual elements are arranged; and a process of transmitting the first setting file and the second setting file to the display unit through the server.

[0021] The process of generating the first configuration file includes verifying the performance of the display unit and generating the first configuration file by setting at least one of the resolution of the screen to display visual elements, the number of colors expressed on the screen, and the font displayed on the screen so as not to exceed the verified performance.

[0022] The process of generating the second configuration file comprises: a process of producing visual elements corresponding to each state information that the unmanned aerial vehicle can provide; and a process of generating and saving the second configuration file to configure the display unit to display the visual elements in accordance with the method of producing the visual elements corresponding to each state information that the unmanned aerial vehicle can provide.

[0023] The process of generating the above request message in the display unit and transmitting it to the information management unit is to generate and transmit the above request message in accordance with STANAG 4586, which standardizes the control method of unmanned aerial vehicles, and the process of setting up and creating the above server is to be performed in accordance with ARINC 661, which standardizes the configuration and communication method of aircraft cockpit displays. Effects of the invention

[0024] According to embodiments of the present invention, status information received from an unmanned aerial vehicle can be processed to be visually displayed in an embedded system. Accordingly, a user of the embedded system can easily check the status information of the unmanned aerial vehicle. Therefore, it is possible to perform a stable mission by controlling the unmanned aerial vehicle while checking its status information. Brief explanation of the drawing

[0025] FIG. 1 is a diagram showing the configuration of an unmanned aerial vehicle information processing device according to an embodiment of the present invention. FIG. 2 is a flowchart illustrating an unmanned aerial vehicle information processing method according to an embodiment of the present invention. Specific details for implementing the invention

[0026] Hereinafter, embodiments of the present invention will be described in more detail with reference to the attached drawings. However, the present invention is not limited to the embodiments disclosed below but may be implemented in various different forms, and these embodiments are provided merely to ensure that the disclosure of the present invention is complete and to fully inform those skilled in the art of the scope of the invention. To describe the invention in detail, the drawings may be exaggerated, and like reference numerals in the drawings refer to like elements.

[0028] FIG. 1 is a diagram showing the configuration of an unmanned aerial vehicle information processing device according to an embodiment of the present invention. Below, an unmanned aerial vehicle information processing device according to an embodiment of the present invention will be described.

[0029] An unmanned aerial vehicle information processing device may be a processing device for processing information provided by an unmanned aerial vehicle to display visually or to process information to be transmitted to the unmanned aerial vehicle. Referring to FIG. 1, the unmanned aerial vehicle information processing device (100) includes an information management unit (110), a display unit (120), and a display setting unit (130).

[0030] At this time, the unmanned aerial vehicle (V) is an aircraft that does not have a pilot on board and whose flight, etc., is controlled by communicating with a controller operating on the ground or in the air. Multiple unmanned aerial vehicles (V) may be operated, and a single controller may control multiple unmanned aerial vehicles (V), or multiple controllers may be provided to jointly control multiple unmanned aerial vehicles (V). Since the controller may have an embedded system operating with a real-time operating system, it may be difficult to receive and display status information of the unmanned aerial vehicle (V) using X-Window and a web browser due to compatibility issues. By using an unmanned aerial vehicle information processing device (100), the status information of the unmanned aerial vehicle (V) can be processed so that it can be checked even on the controller of the embedded system.

[0031] The information management unit (110) can be mounted on either the unmanned aerial vehicle (V) or the controller. The information management unit (110) can communicate with the unmanned aerial vehicle (V) to receive status information from the unmanned aerial vehicle (V) and manage the status information of the unmanned aerial vehicle (V). That is, the information management unit (110) can receive and manage status information provided by the unmanned aerial vehicle (V) and control the functions of the unmanned aerial vehicle (V). For example, the information management unit (110) may be a VSM (Vehicle Specific Module). If there are multiple unmanned aerial vehicles (V), multiple information management units (110) may be provided, and each may be assigned an unmanned aerial vehicle (V) to communicate with. Accordingly, the information management unit (110) can manage the information of the assigned specific unmanned aerial vehicle and convert it into a standardized format to be linked with the controller.

[0032] The display setting unit (130) can set the method by which the display unit (120) displays visual elements. Specifically, when the display unit (120) operates as a real-time operating system, the display setting unit (130) can set the method by which the display unit (120) displays visual elements in accordance with compatibility with the real-time operating system. Visual elements may include widgets. Therefore, even if the display unit (120) operates as a real-time operating system, visual elements can be stably displayed according to the method set by the display setting unit (130). The display setting unit (130) includes a first generation unit (131), a second generation unit (132), and a transmission unit (133).

[0033] The first generating unit (131) can generate a first setting file that sets the screen on which the display unit (120) displays visual elements. To this end, the first generating unit (131) can verify the performance of the display unit (120) in which it can display the screen. For example, information regarding the performance of the display unit (120) can be input into the first generating unit (131). The first generating unit (131) can generate the first setting file by setting at least one of the resolution of the screen on which visual elements are displayed, the number of colors displayed on the screen, and the font displayed on the screen so as not to exceed the performance of the display unit (120). That is, the first generating unit (131) can generate a first setting file in which a method is set to generate the screen on which visual elements are displayed in accordance with the maximum resolution of the screen that the display unit (120) can display, the maximum number of colors that can be displayed on the screen that the display unit (120) can display, and the font that can be displayed on the screen. Therefore, since the screen is not generated beyond the performance of the display unit (120), the display unit (120) can stably generate a screen to display visual elements.

[0034] The second generation unit (132) can generate a second configuration file that sets the types of visual elements to be displayed on the screen of the display unit (120) and the layout in which the visual elements are arranged, according to the first standard that standardizes the display configuration of the controller controlling the unmanned aerial vehicle. The first standard may include a standard for the communication method between the display unit (120) and the information management unit (110). For example, the first standard may include ARINC 661, which is an international standard for the design and implementation of an aircraft cockpit display system, and may include a standard for the communication method between the aircraft cockpit display system and user applications (UA). The second generation unit (132) includes a production unit and a storage unit.

[0035] The manufacturing unit can produce visual elements corresponding to each state information that the unmanned aerial vehicle (V) can provide, in accordance with the first standard. That is, the manufacturing unit may be an ARINC 661 authoring tool. The manufacturing unit can verify the state information that the unmanned aerial vehicle (V) can provide. For example, the manufacturing unit can verify the types of sensors equipped in the unmanned aerial vehicle (V). Accordingly, the manufacturing unit can verify each of the sensor measurements, which are state information, as state information that the unmanned aerial vehicle (V) can provide, and produce visual elements to visually display each of the measurements.

[0036] The storage unit may be connected to receive information from the production unit. Accordingly, the storage unit receives information regarding the start elements produced by the production unit and can use this information to create a second configuration file. That is, the storage unit can create a second configuration file to set the display unit (120) to display visual elements in accordance with the method by which the production unit produced the start elements. The storage unit may be equipped with a storage medium for storing information. Thus, the generated second configuration file can be stored.

[0037] The transmission unit (133) can be connected to receive information from the first generation unit (131) and the second generation unit (132). Accordingly, the transmission unit (133) can receive the first configuration file and the second configuration file and transmit them to the display unit (120). More specifically, the transmission unit (133) can transmit the first configuration file and the second configuration file to the display unit (120) through the information management unit (110).

[0038] The display unit (120) can be mounted on the controller. The display unit (120) can communicate with the information management unit (110) via wired or wireless means. Accordingly, the display unit (120) can receive status information of the unmanned aerial vehicle (V) from the information management unit (110) and display it as a visual element. Thus, the status information can be checked on the controller. The display unit (120) operates with a real-time operating system, and the real-time operating system may be compatible with the first standard (or ARINC 661). The display unit (120) includes a display unit (121), a screen configuration unit (122), and an update unit (123).

[0039] The display unit (121) can display a screen. The display unit (121) can be mounted on a controller. Accordingly, the user of the controller can visually check the screen displayed by the display unit (121). The screen of the display unit (121) may be a touchscreen that the user can touch. Therefore, when the user touches the screen of the display unit (121), this can be detected.

[0040] The screen configuration unit (122) can be connected to the display unit (121). The screen configuration unit (122) can receive a first configuration file and a second configuration file transmitted through the information management unit (110). Accordingly, the screen configuration unit (122) can generate a screen to be displayed by the display unit (121) according to the first configuration file, and generate visual elements to be displayed on the screen of the display unit (121) according to the second configuration file. Since the first configuration file is generated to match the performance of the display unit (121), the screen configuration unit (122) can stably generate the screen of the display unit (121). The screen configuration unit (122) and the display unit (121) operate as a real-time operating system, and since the second configuration file is generated according to a first standard compatible with the real-time operating system, the screen configuration unit (122) can stably generate visual elements to be displayed on the screen of the display unit (121).

[0041] The update unit (123) can be connected to the display unit (121). The update unit (123) can receive status information of the unmanned aerial vehicle (V) from the information management unit (110). Accordingly, the update unit (123) can update visual elements corresponding to the status information on the screen according to the status information received from the information management unit (110). That is, the update unit (123) can analyze the parameters of the status information and change the visual elements corresponding to the status information according to the parameters. The update unit (123) can repeatedly receive status information of the unmanned aerial vehicle (V) and update the visual elements displayed on the screen, thereby reflecting the latest status information in the visual elements. Thus, the display unit (121) can display the real-time status of the unmanned aerial vehicle (V).

[0042] Meanwhile, the display unit (120) may further include a transmission unit (124). The transmission unit (124) can detect a touch event of the touchscreen on the screen of the display unit (121) and transmit it to the information management unit (110). For example, when a button displayed on the screen is touched, the transmission unit (124) can notify the information management unit (110) that the button has been touched so that a function associated with the button is performed.

[0043] Additionally, the display unit (120) may further include a communication request unit (125). The communication request unit (125) can generate a request message for communication with the information management unit (110) according to a second standard that standardizes the control method of the unmanned aerial vehicle (V) and transmit it to the information management unit (110). For example, the second standard may include STANAG 4586, and the request message may be a DLI (Data Link Interface) message. Upon receiving the request message, the information management unit (110) may configure a server for communication according to the first standard. That is, a computer may be provided in the information management unit (110) to configure a TCP or UDP server. Once the server is configured, the information management unit (110) may generate connection information to connect to the server. The connection information may include a Protocol, IP Address, Port Number, etc. The information management unit (110) may transmit the connection information to the display unit (120) that transmitted the request message. The display unit (120) configures a TCP or UDP client and connects to a server according to the received connection information. Subsequently, the first configuration file, the second configuration file, and the status information of the unmanned aerial vehicle (V) can be transmitted to the display unit (120) according to the first standard. Therefore, the display unit (120) compatible with the first standard can reliably receive the first configuration file, the second configuration file, and the status information of the unmanned aerial vehicle (V), configure the screen, and display visual elements according to the status information.

[0044] Meanwhile, multiple information management units (110) are provided to manage status information of different unmanned aerial vehicles (V). Multiple screens of the display unit (121) are provided to display status information received from each of the multiple information management units (110). Accordingly, the status of each of the multiple unmanned aerial vehicles (V) can be checked on different screens. Therefore, the user of the controller can easily check the status of the multiple unmanned aerial vehicles (V) and control the flight of the unmanned aerial vehicles (V).

[0045] In this way, the status information provided by the unmanned aerial vehicle (V) can be processed to be visually displayed in the embedded system. Accordingly, the user of the embedded system can easily check the status information of the unmanned aerial vehicle (V). Therefore, it is possible to perform a stable mission by controlling the unmanned aerial vehicle while checking the status information of the unmanned aerial vehicle (V).

[0047] FIG. 2 is a flowchart illustrating an unmanned aerial vehicle information processing method according to an embodiment of the present invention. Below, an unmanned aerial vehicle information processing method according to an embodiment of the present invention will be described.

[0048] The unmanned aerial vehicle information processing method may be a processing method for processing information provided by the unmanned aerial vehicle to visually display it or to process information to be transmitted to the unmanned aerial vehicle. Referring to FIG. 2, the unmanned aerial vehicle information processing method includes a communication process (S110) in which an information management unit for managing the status information of the unmanned aerial vehicle communicates with a display unit that includes a real-time operating system and displays the status information as visual elements; a setting process (S120) in which the method of displaying visual elements by the display unit is set to match compatibility with the real-time operating system; and a display process (S130) in which visual elements are displayed by the display unit according to the method set in the setting process, and the visual elements displayed by the display unit are updated according to the status information.

[0049] At this time, the unmanned aerial vehicle information processing method can be performed by an unmanned aerial vehicle information processing device according to an embodiment of the present invention having a configuration as shown in FIG. 1. Accordingly, the processes of the unmanned aerial vehicle information processing method will be described below with reference to FIG. 1. However, the unmanned aerial vehicle information processing method is not limited thereto and can be performed by an unmanned aerial vehicle information processing device of various configurations.

[0050] First, an information management unit for managing the status information of an unmanned aerial vehicle is connected to a display unit that includes a real-time operating system and displays the status information as a visual element (S110). A request message for communicating with the information management unit (110) can be generated by the communication request unit (125) of the display unit (120) and transmitted to the information management unit (110). The communication request unit (125) can generate a request message in accordance with STANAG 4586, which standardizes the control method of the unmanned aerial vehicle, and transmit it to the information management unit (110). When the information management unit (110) receives the request message, it can configure a server to communicate with the display unit (120) that transmitted the request message. The information management unit (110) can configure a server to communicate in accordance with ARINC 661, which standardizes the configuration and communication method of the aircraft cockpit display, using a computer provided. When the server is configured, the information management unit (110) can generate connection information to access the server and send it to the display unit (120) that sent the request message. The display unit (120) can access the server created by the information management unit (110) according to the received connection information. Thus, the information management unit (110) and the display unit (120) can be in a state where they can communicate according to ARINC 661.

[0051] Next, the display unit sets the method of displaying visual elements in accordance with compatibility with the real-time operating system (S120). To this end, the display unit (120) may generate a first setting file that sets the screen on which the visual elements are to be displayed. That is, the first generating unit (131) may generate the first setting file by checking the performance of the display unit (120) and setting at least one of the resolution of the screen on which the visual elements are to be displayed, the number of colors expressed on the screen on which the visual elements are to be displayed, and the font displayed on the screen on which the visual elements are to be displayed, so as not to exceed the checked performance. Additionally, a second setting file may be generated that sets the types of visual elements to be displayed on the screen of the display unit (120) and the layout on which the visual elements are placed. In detail, the second generating unit (132) may check the state information that the unmanned aerial vehicle (V) can provide and produce visual elements corresponding to each state information. A second setting file may be generated and saved to set the display unit (120) to display visual elements in accordance with the method of producing the visual elements corresponding to each state information. When the first configuration file and the second configuration file are created, they can be transmitted to the display unit (120) through the server. Since the configuration process follows ARINC 661, the display unit (120) can reliably receive the first configuration file and the second configuration file.

[0052] Next, visual elements are displayed in the display unit according to the method set during the setting process, and the visual elements displayed in the display unit are updated according to the status information (S130). That is, the screen configuration unit (122) can generate the screen of the display unit (120) according to the first configuration file and generate visual elements to be displayed on the screen of the display unit (120) according to the second configuration file. Since the first configuration file is generated according to the performance of the display unit (120), the screen configuration unit (122) can stably generate the screen of the display unit (120). The screen configuration unit (122) and the display unit (120) operate as a real-time operating system, and since the second configuration file is generated according to the first standard compatible with the real-time operating system, the screen configuration unit (122) can stably generate visual elements to be displayed on the screen of the display unit (120). When visual elements are displayed on the screen, the update unit (123) can update the visual elements corresponding to the corresponding status information on the screen according to the status information received from the information management unit (110). In detail, the update unit (123) can analyze the parameters of the state information and change the visual elements corresponding to the state information according to the parameters. The update unit (123) can repeatedly receive the state information of the unmanned aerial vehicle (V) and update the visual elements displayed on the screen, thereby reflecting the latest state information in the visual elements. Thus, the display unit (120) can display the real-time state of the unmanned aerial vehicle (V).

[0053] In this way, the status information provided by the unmanned aerial vehicle (V) can be processed to be visually displayed in the embedded system. Accordingly, the user of the embedded system can easily check the status information of the unmanned aerial vehicle (V). Therefore, it is possible to perform a stable mission by controlling the unmanned aerial vehicle while checking the status information of the unmanned aerial vehicle (V).

[0055] As such, although specific embodiments have been described in the detailed description of the present invention, various modifications are possible within the scope of the invention, and various combinations between embodiments are also possible. Therefore, the scope of the present invention should not be limited to the described embodiments, but should be defined by the claims set forth below as well as equivalents thereof. Explanation of the symbols

[0056] 100: Unmanned aerial vehicle information processing unit 110: Information management unit 120: Exhibition Section 121: Display Section 122: Screen Configuration Section 123: Update Section 124: Delivery Unit 125: Communication Request Unit 130: Exhibition Setting Section 131: First Generation Section 132: Second generation unit 133: Transmission unit

Claims

Claim 1 An information management unit for receiving and managing status information from an unmanned aerial vehicle; a real-time operating system compatible with a first standard including ARINC 661; and a display unit for receiving the status information from the information management unit and displaying it as a visual element; The unmanned aerial vehicle information processing device comprises: a display setting unit for setting the method of displaying visual elements in the display unit in accordance with compatibility with the real-time operating system; wherein the display setting unit comprises a first generating unit for generating a first setting file for setting a screen on which the display unit will display visual elements, and a second generating unit for generating a second setting file for setting the types of visual elements to be displayed on the screen and the layout in which the visual elements are arranged according to the first standard; wherein the display unit generates a request message for communicating with the information management unit according to a second standard including STANAG 4586 and transmits it to the information management unit; and when the information management unit receives the request message, it configures a server for communicating according to the first standard and transmits the first setting file, the second setting file, and the status information of the unmanned aerial vehicle to the display unit that transmitted the request message through the server. Claim 2 delete Claim 3 An unmanned aerial vehicle information processing device according to claim 1, wherein the first generating unit checks the performance of the display unit and generates the first setting file by setting at least one of the resolution of a screen to display visual elements, the number of colors expressed on the screen, and a font displayed on the screen so as not to exceed the checked performance. Claim 4 An unmanned aerial vehicle information processing device according to claim 1, wherein the second generating unit comprises: a producing unit for producing visual elements corresponding to each state information that the unmanned aerial vehicle can provide according to the first standard; and a storage unit for producing and storing the second setting file for setting the display unit to display the visual elements in accordance with the method by which the producing unit produced the starting elements. Claim 5 An unmanned aerial vehicle information processing device according to claim 4, wherein the display unit comprises: a display unit for displaying the screen; a screen configuration unit for generating a screen to be displayed by the display unit according to the first setting file and generating visual elements to be displayed on the screen of the display unit according to the second setting file; and an update unit for updating visual elements corresponding to the corresponding state information on the screen according to state information received from the information management unit. Claim 6 An unmanned aerial vehicle information processing device according to claim 5, wherein the screen of the display unit includes a touchscreen that is touchable by a user, and the display unit further includes a transmission unit that detects a touch event of the touchscreen and transmits it to the information management unit. Claim 7 An unmanned aerial vehicle information processing device according to claim 5, wherein the information management unit is provided in multiple units to manage status information of different unmanned aerial vehicles, and the display unit is provided in multiple screens to display status information received from the multiple information management units. Claim 8 delete Claim 9 delete Claim 10 An unmanned aerial vehicle information processing device according to claim 1, wherein the information management unit is mounted on either the unmanned aerial vehicle or a controller operated on the ground or in the air to control the unmanned aerial vehicle, the display unit is mounted on the controller, and the information management unit and the display unit communicate via wired or wireless means. Claim 11 A communication process for communicating an information management unit for managing status information of an unmanned aerial vehicle with a display unit that includes a real-time operating system compatible with a first standard including ARINC 661 and displays said status information as visual elements; and a setting process for setting the method by which said display unit displays visual elements in accordance with compatibility with said real-time operating system. A method for processing information on an unmanned aerial vehicle, comprising: a display process for displaying visual elements on a display unit according to a method set in the above setting process, and updating the visual elements displayed on the display unit according to the above status information; wherein the setting process includes a process of creating a first setting file for setting a screen on which the display unit will display visual elements, and a process of creating a second setting file for setting the types of visual elements to be displayed on the screen and the layout in which the visual elements are arranged; and the communication process includes a process of generating a request message for communicating with the information management unit in the display unit according to a second standard including STANAG 4586 and transmitting it to the information management unit, a process of configuring a server for communicating with the display unit that transmitted the request message in the information management unit, and a process of transmitting the first setting file, the second setting file, and the status information of the unmanned aerial vehicle to the display unit that transmitted the request message through the server. Claim 12 delete Claim 13 delete Claim 14 A method for processing information on an unmanned aerial vehicle according to claim 11, wherein the process of generating the first setting file comprises verifying the performance of the display unit and generating the first setting file by setting at least one of the resolution of the screen to display visual elements, the number of colors expressed on the screen, and the font displayed on the screen so as not to exceed the verified performance. Claim 15 A method for processing unmanned aerial vehicle information according to claim 11, wherein the process of generating the second setting file comprises: a process of producing visual elements corresponding to each state information that the unmanned aerial vehicle can provide; and a process of generating and saving the second setting file to set the display unit to display the visual elements in accordance with the method of producing the visual elements corresponding to each state information that the unmanned aerial vehicle can provide. Claim 16 delete

Images