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CN106774388A - A multi-temporal and multi-temporal aircraft guidance system with cloud computing capabilities - Google Patents

A multi-temporal and multi-temporal aircraft guidance system with cloud computing capabilities Download PDF

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Publication number
CN106774388A
CN106774388A CN201611126033.6A CN201611126033A CN106774388A CN 106774388 A CN106774388 A CN 106774388A CN 201611126033 A CN201611126033 A CN 201611126033A CN 106774388 A CN106774388 A CN 106774388A
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aircraft
ethernet
guidance system
information
hotspot device
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杨景波
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Zhongshan Lingbo Network Technology Co ltd
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Zhongshan Lingbo Network Technology Co ltd
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    • GPHYSICS
    • G05CONTROLLING; REGULATING
    • G05DSYSTEMS FOR CONTROLLING OR REGULATING NON-ELECTRIC VARIABLES
    • G05D1/00Control of position, course, altitude or attitude of land, water, air or space vehicles, e.g. using automatic pilots
    • G05D1/10Simultaneous control of position or course in three dimensions
    • G05D1/101Simultaneous control of position or course in three dimensions specially adapted for aircraft

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  • Engineering & Computer Science (AREA)
  • Aviation & Aerospace Engineering (AREA)
  • Radar, Positioning & Navigation (AREA)
  • Remote Sensing (AREA)
  • Physics & Mathematics (AREA)
  • General Physics & Mathematics (AREA)
  • Automation & Control Theory (AREA)
  • Traffic Control Systems (AREA)
  • Mobile Radio Communication Systems (AREA)

Abstract

The invention discloses a multi-time-phase multi-time aircraft guidance system with cloud computing capability, which comprises a cloud computing system consisting of an Ethernet server, a plurality of Ethernet hotspot devices and one or more aircraft, wherein the Ethernet server is communicated with the Ethernet hotspot devices through Ethernet, the aircraft is communicated with the Ethernet hotspot devices through Bluetooth 4.0, the aircraft is an unmanned aircraft and is provided with universal unique identification codes, and the Ethernet hotspot devices are arranged at intervals to form an aircraft guidance area. The invention can guide a plurality of unmanned aerial vehicles, reduce the guiding power consumption and cost, and can perform virtual remote control and collect user habits.

Description

一种具备云端运算能力的多时相多时态飞行器导引系统A multi-temporal and multi-temporal aircraft guidance system with cloud computing capabilities

技术领域technical field

本发明涉及无人机导航技术领域,尤其是涉及一种具备云端运算能力的多时相多时态飞行器导引系统。The invention relates to the field of unmanned aerial vehicle navigation technology, in particular to a multi-temporal and multi-temporal aircraft guidance system with cloud computing capabilities.

背景技术Background technique

现有无人机的导航技术,通常均是使用无线电作一对一沟通,并使用无线电传输指令到终端机器,即无人机;若使用无线区域网络(WI-FI)等技术作出大范围的终端机器控制,在低成本环境下均不能作精准距离测量。以上技术只能作单一沟通并以高功耗运作;现有遥距机器控制器均局限于遥控传输方式之距离界限并不能作远端控制。The existing navigation technology of drones usually uses radio for one-to-one communication, and uses radio to transmit instructions to terminal machines, that is, drones; if technologies such as wireless area network (WI-FI) are used to make large-scale Terminal machine control cannot be used for accurate distance measurement in a low-cost environment. The above technologies can only be used for single communication and operate with high power consumption; the existing remote machine controllers are all limited to the distance limit of the remote control transmission mode and cannot be used for remote control.

发明内容Contents of the invention

本发明是为了解决无人机导航过程中对多个飞行器进行精准导引的问题,提供一种可导引多个无人机飞行器的,并降低导引功耗和成本的具备云端运算能力的多时相多时态飞行器导引系统。The present invention aims to solve the problem of accurately guiding multiple aircraft during the navigation process of the drone, and provides a cloud computing capability that can guide multiple drone aircraft and reduce power consumption and cost of guidance. Multi-temporal multi-temporal aircraft guidance system.

为了实现上述目的,本发明采用以下技术方案:一种具备云端运算能力的多时相多时态飞行器导引系统,所述的飞行器导引系统包括由一个以太网服务器、多个以太网热点设备、一个或多个飞行器组成的云端运算系统,所述的以太网服务器与以太网热点设备通过以太网连通,所述的飞行器与以太网热点设备通过蓝牙4.0相互连通,所述飞行器为无人飞行器并均设有通用唯一识别码,所述的以太网热点设备相互间隔设置并形成飞行器导引区域,所述飞行器导引系统导引过程如下:1)所述飞行器在飞行器导引区域内将信息通过蓝牙4.0传输给以太网热点设备;2)所述以太网热点设备通过以太网将信息传输给以太网服务器;3)所述以太网服务器由云端运算系统获得多个飞行器定位信息和行为控制信息,并形成进一步的针对多个飞行器的多时相多时态导引指令;4)所述以太网服务器计算出适合于不同飞行器的以太网热点设备,并将多时相多时态导引指令通过以太网传输给不同的以太网热点设备;5)上一步中计算出的以太网热点设备将多时相多时态导引指令通过蓝牙4.0传输给不同的飞行器,飞行器按照导引指令行动。本方案所指的多时相,是指飞行器在多个不同时间的不同位置,多时态,是指飞行器在多个不同时间的不同飞行状态;其中,飞行器的飞行状态包括直行、左转弯、右转弯、空中停滞等。In order to achieve the above object, the present invention adopts the following technical solutions: a multi-temporal and multi-temporal aircraft guidance system with cloud computing capability, the aircraft guidance system includes an Ethernet server, multiple Ethernet hotspot devices, a or a cloud computing system composed of multiple aircraft, the Ethernet server and the Ethernet hotspot device are connected through Ethernet, the aircraft and the Ethernet hotspot device are connected to each other through Bluetooth 4.0, and the aircraft is an unmanned aerial vehicle and both A universal unique identification code is provided, and the Ethernet hotspot devices are set at intervals to form an aircraft guidance area. The guidance process of the aircraft guidance system is as follows: 1) the aircraft transmits information through Bluetooth in the aircraft guidance area. 4.0 is transmitted to the Ethernet hotspot device; 2) the Ethernet hotspot device transmits information to the Ethernet server through the Ethernet; 3) the Ethernet server obtains a plurality of aircraft positioning information and behavior control information by the cloud computing system, and Form further multi-temporal and multi-temporal guidance instructions for multiple aircraft; 4) the Ethernet server calculates the Ethernet hotspot equipment suitable for different aircraft, and transmits the multi-temporal and multi-temporal guidance instructions to different aircraft via Ethernet. 5) the Ethernet hotspot device calculated in the previous step transmits the multi-temporal and multi-temporal guidance instructions to different aircraft through Bluetooth 4.0, and the aircraft acts according to the guidance instructions. The multi-temporal phase referred to in this scheme refers to the different positions of the aircraft at multiple different times, and the multi-temporal state refers to the different flight states of the aircraft at multiple different times; wherein, the flight status of the aircraft includes going straight, turning left, and turning right , air stagnation, etc.

作为优选,所述的飞行器导引系统导引过程2)中,所述的以太网热点设备收集飞行器的信息包括飞行器通用唯一识别码、飞行器接收信号强度指标,并将该信息传给以太网服务器。As preferably, in the guidance process 2) of the aircraft guidance system, the information of the aircraft collected by the Ethernet hotspot device includes the aircraft universal unique identification code, the aircraft received signal strength index, and transmits the information to the Ethernet server .

作为优选,所述的飞行器导引系统导引过程3)中,所述的以太网服务器根据飞行器导引区域内所有无人机的定位信息和行为控制信息、以太网热点设备的环境信息优化无人机行动路径计算,避免无人机相互碰撞。As preferably, in the guidance process 3) of the aircraft guidance system, the Ethernet server optimizes the wireless network according to the positioning information and behavior control information of all drones in the aircraft guidance area, and the environmental information of the Ethernet hotspot device. Human-machine action path calculation to avoid collision between drones.

作为优选,所述的飞行器导引系统采用个人终端操控,所述的个人终端包括手机、掌上电脑。Preferably, the aircraft guidance system is controlled by a personal terminal, and the personal terminal includes a mobile phone and a palmtop computer.

本方案中,飞行器将收集之资料透过蓝牙通讯协定传输至以太网热点设备,与此同时以太网热点设备收集飞行器的通用唯一识别码(Universal Unique Identifier,UUID)及其接收讯号强度指标(Received Signal-Strength Indicator,RSSI)值,将资料透过以太网路传输至服务器,服务器借由云端计算收到的资料取得飞行器的定位资讯及行为控制方式,服务器得到的定位资讯及行为控制方式再回传至热点设备,热点设备在收到飞行器控制资讯后,透过多时相多时态信号可以针对特定之飞行器进行控制及导引,实现此具备云端运算能力的多时相多时态飞行器导引系统。In this solution, the data collected by the aircraft is transmitted to the Ethernet hotspot device through the Bluetooth communication protocol. Signal-Strength Indicator, RSSI) value, the data is transmitted to the server through Ethernet, the server obtains the positioning information and behavior control method of the aircraft through the data received by cloud computing, and the positioning information and behavior control method obtained by the server are sent back After receiving the aircraft control information, the hotspot device can control and guide specific aircraft through multi-temporal and multi-temporal signals, realizing this multi-temporal and multi-temporal aircraft guidance system with cloud computing capabilities.

无人机飞行器包括有人操作的手动模式及全部自动操作的自动模式,其切换方式按照定位资讯及行为控制方式进行不同情况下的切换;例如,无人机飞行器在下列情况下由自动模式切换到手动模式:1)无人机飞行器已经飞到指定目的地;2)无人机飞行器飞行途中遇到障碍;3)无人机飞行器飞行途中失去定位资讯;无人机飞行器在下列情况下由手动模式切换到自动模式:1)使用者下达自动返航指令;2)无人机飞行器飞行到禁飞区域时,切换到自动模式离开禁飞区域。Unmanned aerial vehicle includes manned manual mode and automatic mode of all automatic operation, and its switching method is switched in different situations according to positioning information and behavior control mode; for example, unmanned aerial vehicle is switched from automatic mode to Manual mode: 1) The UAV aircraft has already flown to the designated destination; 2) The UAV aircraft encountered obstacles during flight; 3) The UAV aircraft lost its positioning information during flight; Mode switching to automatic mode: 1) The user issues an automatic return command; 2) When the UAV aircraft flies to the no-fly area, switch to the automatic mode to leave the no-fly area.

因此,本发明具有如下有益效果:(1)可导引多个无人机飞行器;(2)降低导引功耗和成本;(3)可进行虚拟远端控制及收集使用者习性。Therefore, the present invention has the following beneficial effects: (1) multiple unmanned aerial vehicles can be guided; (2) power consumption and cost of guidance can be reduced; (3) virtual remote control and user habits can be collected.

附图说明Description of drawings

图1是本发明导引系统的一种结构原理图。Fig. 1 is a structural principle diagram of the guidance system of the present invention.

图2是本发明实施例的预设飞行器路径示意图。FIG. 2 is a schematic diagram of a preset aircraft path according to an embodiment of the present invention.

图3是本发明实施例的预设飞行器多时相多时态信号示意图。Fig. 3 is a schematic diagram of a multi-temporal multi-temporal signal of a preset aircraft according to an embodiment of the present invention.

图4是本发明实施例的预设飞行器导引系统原理图。Fig. 4 is a schematic diagram of a preset aircraft guidance system according to an embodiment of the present invention.

具体实施方式detailed description

下面结合附图对本发明做进一步的描述。The present invention will be further described below in conjunction with the accompanying drawings.

如图1所示的实施例中,一种具备云端运算能力的多时相多时态飞行器导引系统,飞行器导引系统包括由一个以太网服务器、多个以太网热点设备、一个或多个飞行器组成的云端运算系统,以太网服务器与以太网热点设备通过以太网连通,飞行器与以太网热点设备通过蓝牙4.0相互连通,飞行器为无人飞行器并均设有通用唯一识别码,以太网热点设备相互间隔设置并形成飞行器导引区域,飞行器导引系统导引过程如下:1)飞行器在飞行器导引区域内将信息通过蓝牙4.0传输给以太网热点设备;2)以太网热点设备通过以太网将信息传输给以太网服务器;3)以太网服务器由云端运算系统获得多个飞行器定位信息和行为控制信息,并形成进一步的针对多个飞行器的多时相多时态导引指令;4)以太网服务器计算出适合于不同飞行器的以太网热点设备,并将多时相多时态导引指令通过以太网传输给不同的以太网热点设备;5)上一步中计算出的以太网热点设备将多时相多时态导引指令通过蓝牙4.0传输给不同的飞行器,飞行器按照导引指令行动;In the embodiment shown in Figure 1, a multi-temporal and multi-temporal aircraft guidance system with cloud computing capabilities, the aircraft guidance system includes an Ethernet server, multiple Ethernet hotspot devices, and one or more aircraft. The cloud computing system, the Ethernet server and the Ethernet hotspot device are connected through Ethernet, the aircraft and the Ethernet hotspot device are connected to each other through Bluetooth 4.0, the aircraft is an unmanned aerial vehicle and has a universal unique identification code, and the Ethernet hotspot devices are separated from each other Set and form the aircraft guidance area, the guidance process of the aircraft guidance system is as follows: 1) The aircraft transmits information to the Ethernet hotspot device through Bluetooth 4.0 in the aircraft guidance area; 2) The Ethernet hotspot device transmits information through Ethernet to the Ethernet server; 3) the Ethernet server obtains multiple aircraft positioning information and behavior control information from the cloud computing system, and forms further multi-temporal and multi-temporal guidance instructions for multiple aircraft; 4) the Ethernet server calculates a suitable 5) The Ethernet hotspot device calculated in the previous step transmits the multi-temporal multi-temporal guidance command to different Ethernet hotspot devices through Ethernet; Transmit to different aircraft through Bluetooth 4.0, and the aircraft will act according to the guidance instructions;

飞行器导引系统导引过程2)中,以太网热点设备收集飞行器的信息包括飞行器通用唯一识别码、飞行器接收信号强度指标,并将该信息传给以太网服务器;In the guidance process of the aircraft guidance system 2), the Ethernet hotspot device collects the information of the aircraft including the general unique identification code of the aircraft, the received signal strength index of the aircraft, and transmits the information to the Ethernet server;

飞行器导引系统导引过程3)中,以太网服务器根据飞行器导引区域内所有无人机的定位信息和行为控制信息、以太网热点设备的环境信息优化无人机行动路径计算,避免无人机相互碰撞;During the guidance process 3) of the aircraft guidance system, the Ethernet server optimizes the calculation of the unmanned aerial vehicle's action path according to the positioning information and behavior control information of all drones in the aircraft guidance area, and the environmental information of the Ethernet hotspot device, so as to avoid unmanned machines collide with each other;

飞行器导引系统采用个人终端操控。The aircraft guidance system is controlled by a personal terminal.

具体实施过程是,如图2、图3、图4所示,服务器产生飞行器的预设飞行路径,并在飞行器预设路径经过的最合适的热点设备处发出飞行器飞行状态控制信息,飞行器在从起点起飞及中途飞行过程中不断将信息通过热点设备返回给服务器,服务器根据多个飞行器的位置和飞行状态信息,优化飞行器飞行路径和飞行状态,避免飞行器相互碰撞,直至飞行器顺利到达终点。The specific implementation process is, as shown in Fig. 2, Fig. 3 and Fig. 4, the server generates the preset flight path of the aircraft, and sends the flight status control information of the aircraft at the most suitable hot spot device where the preset path of the aircraft passes. The information is continuously returned to the server through the hotspot device during the starting point take-off and mid-flight. The server optimizes the flight path and flight status of the aircraft based on the position and flight status information of multiple aircraft to avoid collisions between the aircraft until the aircraft reaches the destination smoothly.

Claims (4)

1. a kind of multidate multi-time Scales aircraft guidance system for possessing high in the clouds operational capability, it is characterised in that described flight Device guidance system includes the cloud being made up of an ethernet server, multiple Ethernet hotspot devices, one or more aircraft End arithmetic system, described ethernet server connected with Ethernet hotspot device by Ethernet, described aircraft and with Too net hotspot device is interconnected by bluetooth 4.0, and the aircraft is unmanned vehicle and is equipped with general unique identifier, The spaced setting of described Ethernet hotspot device simultaneously forms aircraft guide area, and the aircraft guidance system is guided over Journey is as follows:1) information is transferred to Ethernet hotspot device by the aircraft in aircraft guide area by bluetooth 4.0;2) The Ethernet hotspot device transmits information to ethernet server by Ethernet;3) ethernet server is by high in the clouds Arithmetic system obtains multiple Aerial vehicle position information and Behavior- Based control information, and forms further for many of multiple aircraft Phase multi-time Scales steering instruction;4) ethernet server calculates the Ethernet hotspot device for being suitable for different aircraft, And multidate multi-time Scales steering instruction is transferred to different Ethernet hotspot devices by Ethernet;5) calculated in previous step Ethernet hotspot device multidate multi-time Scales steering instruction is transferred to different aircraft by bluetooth 4.0, aircraft is pressed According to steering instruction action.
2. a kind of multidate multi-time Scales aircraft guidance system for possessing high in the clouds operational capability according to claim 1, its It is characterized in, described aircraft guidance system guided procedure 2) in, described Ethernet hotspot device collects the information of aircraft Including the general unique identifier of aircraft, aircraft received signal strength index, and the information is transmitted to ethernet server.
3. a kind of multidate multi-time Scales aircraft guidance system for possessing high in the clouds operational capability according to claim 1, its It is characterized in, described aircraft guidance system guided procedure 3) in, described ethernet server is according to aircraft guide area The location information and Behavior- Based control information of interior all unmanned planes, the environmental information of Ethernet hotspot device optimization unmanned plane action road Footpath is calculated, it is to avoid unmanned plane is mutually collided.
4. a kind of multidate multi-time Scales aircraft guidance system for possessing high in the clouds operational capability according to claim 1, its It is characterized in that described aircraft guidance system is manipulated using personal terminal, described personal terminal includes mobile phone, palm PC.
CN201611126033.6A 2016-12-09 2016-12-09 A multi-temporal and multi-temporal aircraft guidance system with cloud computing capabilities Pending CN106774388A (en)

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WO2019105231A1 (en) * 2017-11-29 2019-06-06 深圳市大疆创新科技有限公司 Information processing apparatus, flight control instruction method and recording medium

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CN202694592U (en) * 2012-07-25 2013-01-23 湖南中航天幕科技有限公司 Comprehensive management network platform of civil unmanned aerial vehicle
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CN109213199A (en) * 2018-09-20 2019-01-15 广东工业大学 A kind of unmanned plane barrier-avoiding method and device

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