Urban air traffic planning and designing auxiliary system
By using an urban air traffic planning and design support system, combined with a multi-objective function optimization model and genetic algorithm, urban air traffic design schemes are optimized, solving the problem of insufficient existing design capabilities. This enables intelligent and digital airspace performance assessment and air traffic planning, improving the feasibility of the schemes and real-time monitoring capabilities.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2024-08-21
- Publication Date
- 2026-03-13
AI Technical Summary
The existing urban air traffic planning and design capabilities are not mature enough, and the existing environment cannot be fully considered for reasonable design, resulting in overly inefficient planning and design schemes.
An urban air traffic planning and design support system is adopted, including an information model module, a basic data module, a database, an information acquisition module, and an airspace design module. Combined with electromagnetic information detection, a performance analysis database for vertical take-off and landing and general aviation aircraft is constructed. The optimal urban air traffic design scheme is obtained by solving a multi-objective function optimization model and a genetic algorithm.
It enables airspace performance assessment, low-altitude capacity optimization, dynamic airspace allocation, and air conflict detection and resolution, improving the feasibility of air traffic planning schemes and the intelligence and digitalization of design methods, and providing real-time visualization and simulation capabilities.
Smart Images

Figure CN121661872A_ABST
Abstract
Description
Technical Field
[0001] This invention relates to the field of traffic assistance technology, and in particular to an urban air traffic planning and design assistance system. Background Technology
[0002] Urban air mobility (UAM) refers to safe and efficient manned / unmanned (air) transportation systems used for passenger or freight transport in cities. With rapid urbanization, land resources are becoming scarce, and ground traffic is increasingly congested, necessitating the development and utilization of air resources. UAM primarily utilizes low-altitude airspace, is unaffected by complex urban terrain, and can achieve point-to-point flights, offering convenience, speed, and efficiency. Planning and constructing UAM can effectively develop and utilize urban low-altitude resources, creating a comprehensive three-dimensional transportation system integrating air, ground, and underground transport.
[0003] The development of the urban air traffic planning and design support system aims to solve practical problems and meet the actual needs of urban traffic planning. Through this system, flight paths, airspace allocation, and takeoff and landing point layouts for urban air traffic can be scientifically and rationally planned, improving the overall efficiency and safety of the urban transportation system.
[0004] However, the current urban air traffic planning and design capabilities are not mature enough, and the existing environment cannot be fully considered for reasonable design. The planning and design schemes are too inefficient. Therefore, an auxiliary system for urban air traffic planning and design is provided. Summary of the Invention
[0005] To address the shortcomings of existing technologies, this invention provides an urban air traffic planning and design auxiliary system, which solves the problems of insufficient maturity in current urban air traffic planning and design capabilities, inability to fully consider the existing environment for reasonable design, and overly inefficient planning and design schemes.
[0006] To achieve the above objectives, the present invention adopts the following technical solution: A system for assisting urban air traffic planning and design includes a system module assembly. The system module assembly comprises an information model module, a basic data module, a database, an information acquisition module, and an airspace design module. The airspace design module includes an airspace planning module, a route design module, and an aircraft performance analysis module. The airspace design module is connected to the information acquisition module and the database, and is also connected to a design verification module. The information acquisition module collects urban traffic information and geographic information. Then, based on the cooperation of the information model module, the basic data module, and the aircraft performance analysis module, it establishes vertical takeoff and landing (VTOL) and general aviation aircraft models. The performance analysis database includes an information acquisition module connected to an interface module, which in turn is connected to an information model module. The information model module is connected to a mechanism rule verification module. When designing air routes, the airspace design module first generates a topology map of the air route network structure, then obtains preset indicators for each air route node, and selects air route nodes whose rankings meet preset conditions as air route nodes for the proposed traffic construction. Initial traffic is then constructed at each air route node in a proportional manner to obtain the initial urban air traffic design scheme. The ground design module includes a take-off and landing site module, a support facility module, and an ancillary facility module.
[0007] Furthermore, the information acquisition module includes an electromagnetic module, which detects electromagnetic information in the environment and uploads it to the information acquisition module.
[0008] Based on the aforementioned scheme, the airspace planning module and the route design module are connected to an airspace management module, which includes a supervision and management module and a dynamic allocation module.
[0009] As a further embodiment of the present invention, the airspace management module is connected to a collaborative operation module and a safety supervision module. The collaborative operation module manages the flight activities of aircraft, collects information and intelligence, and makes emergency rescue responses. The safety supervision module mainly supervises low-altitude investigations, enterprise personnel, and aircraft.
[0010] Furthermore, the airspace management module also includes an infrastructure management module and a landing verification module.
[0011] Based on the aforementioned solution, the system module assembly includes a visualization module, which displays the nature and hierarchical classification of airspace, the planning and design of air routes, and the planning and construction of ground facilities and other infrastructure.
[0012] As a further aspect of the present invention, after obtaining the initial urban air traffic design scheme, the objective functions are to maximize the overall airway network capacity efficiency and minimize the overall airway network transportation cost. The constraints are flight altitude constraint, minimum path segment length constraint, maximum turning angle constraint, maximum climb angle constraint, maximum range constraint, and maximum takeoff mass constraint, and a multi-objective function optimization model for urban air traffic is constructed.
[0013] Furthermore, the system module assembly includes a calculation module, which solves for the optimal urban air traffic design scheme based on the initial urban air traffic design scheme and the urban air traffic multi-objective function optimization model.
[0014] The beneficial effects of this invention are as follows: 1. This invention can assess airspace effectiveness, low-altitude capacity, optimize selectable routes and tracks and dynamic airspace allocation, detect and analyze air conflicts and resolve conflicts, plan and design vertical take-off and landing, analyze the coverage of communication, navigation and surveillance signals, meteorological conditions and electromagnetic environment around the site, and plan communication, navigation, surveillance and safety meteorological settings.
[0015] 2. The interface module in this invention can connect with the operating enterprise and provincial and municipal flight service management platforms to realize digital simulation of operation management such as airspace, collaboration, safety supervision and infrastructure. The visualization display module facilitates real-time understanding of aircraft operation status, airspace, air routes and the practical status of ground facilities and weather conditions.
[0016] 3. This invention constructs a multi-objective function optimization model for urban air traffic, and based on the initial urban air traffic design scheme, adopts heuristic algorithms such as genetic algorithms to solve the optimization model and obtain the optimal urban air traffic design scheme.
[0017] 4. By setting up the airspace design module, we can realize intelligent design methods, digital design concepts, standardized design construction methods, and visualize design results, thereby improving the feasibility of air traffic planning schemes. Attached Figure Description
[0018] Figure 1 This is a schematic diagram of the system framework of an urban air traffic planning and design auxiliary system proposed in this invention. Detailed Implementation
[0019] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. It should be noted that, unless otherwise expressly specified and limited, the terms "installation", "connection", and "setting" should be interpreted broadly. For those skilled in the art, the specific meaning of the above terms in this patent can be understood according to the specific circumstances. Example
[0020] Reference Figure 1 A system for assisting urban air traffic planning and design includes a system module assembly. This assembly comprises an information model module, a basic data module, a database, an information acquisition module, and an airspace design module. The airspace design module includes an airspace planning module, a route design module, and an aircraft performance analysis module. The airspace design module is connected to the information acquisition module and the database, and also connected to a design verification module. The information acquisition module collects urban traffic information and geographic information. Then, based on the cooperation of the information model module, the basic data module, and the aircraft performance analysis module, a database for analyzing the performance of vertical takeoff and landing (VTOL) and general aviation aircraft types is established. This invention can evaluate airspace effectiveness and low-altitude capacity, optimize optional routes and tracks and dynamic airspace allocation, detect and analyze air conflicts and resolve them, plan and design VTOL operations, analyze the coverage of communication, navigation, and surveillance signals around the site, meteorological conditions, and electromagnetic environment, and plan communication, navigation, surveillance, safety, and meteorological settings. The airspace design module enables intelligent design methods, digital design concepts, standardized design construction methods, and visualized design results, improving the feasibility of air traffic planning schemes. The information acquisition module is connected to an interface module, which in turn connects to an information model module. The information model module is connected to a mechanism rule verification module. The interface module interfaces with operating enterprises and provincial and municipal flight service management platforms to achieve digital simulation of airspace, collaboration, safety supervision, and infrastructure operation management. When designing air routes, the airspace design module first generates a topology map of the air route network structure, then obtains the preset indicators of each air route node, and then selects the air route nodes whose ranking of each indicator meets the preset conditions as the air route nodes to be constructed. Then, the initial traffic is constructed at each air route node in proportion to obtain the initial urban air traffic design scheme. The ground design module includes a take-off and landing site module, a support facility module, and a supporting facility module.
[0021] In this invention, the information acquisition module includes an electromagnetic module that detects electromagnetic information in the environment and uploads it to the information acquisition module. The airspace planning module and the route design module are connected to the airspace management module, which includes a supervision and management module and a dynamic allocation module. The airspace management module is also connected to a collaborative operation module and a safety supervision module. The collaborative operation module manages the flight activities of aircraft, collects information and intelligence, and makes emergency rescue responses. The safety supervision module mainly supervises low-altitude enforcement, enterprise personnel, and aircraft. The airspace management module also includes an infrastructure management module and a landing verification module. Example
[0022] Reference Figure 1A system for assisting urban air traffic planning and design includes a system module assembly. This assembly comprises an information model module, a basic data module, a database, an information acquisition module, and an airspace design module. The airspace design module includes an airspace planning module, a route design module, and an aircraft performance analysis module. The airspace design module is connected to the information acquisition module and the database, and also connected to a design verification module. The information acquisition module collects urban traffic information and geographic information. Then, based on the cooperation of the information model module, the basic data module, and the aircraft performance analysis module, a database for analyzing the performance of vertical takeoff and landing (VTOL) and general aviation aircraft types is established. This invention can evaluate airspace effectiveness and low-altitude capacity, optimize optional routes and tracks and dynamic airspace allocation, detect and analyze air conflicts and resolve them, plan and design VTOL operations, analyze the coverage of communication, navigation, and surveillance signals around the site, meteorological conditions, and electromagnetic environment, and plan communication, navigation, surveillance, safety, and meteorological settings. The airspace design module enables intelligent design methods, digital design concepts, standardized design construction methods, and visualized design results, improving the feasibility of air traffic planning schemes. The information acquisition module is connected to an interface module, which in turn connects to an information model module. The information model module is connected to a mechanism rule verification module. The interface module interfaces with operating enterprises and provincial and municipal flight service management platforms to achieve digital simulation of airspace, collaboration, safety supervision, and infrastructure operation management. When designing air routes, the airspace design module first generates a topology map of the air route network structure, then obtains the preset indicators of each air route node, and then selects the air route nodes whose ranking of each indicator meets the preset conditions as the air route nodes to be constructed. Then, the initial traffic is constructed at each air route node in proportion to obtain the initial urban air traffic design scheme. The ground design module includes a take-off and landing site module, a support facility module, and a supporting facility module.
[0023] In this invention, the information acquisition module includes an electromagnetic module that detects electromagnetic information in the environment and uploads it to the information acquisition module. The airspace planning module and the route design module are connected to the airspace management module, which includes a supervision and management module and a dynamic allocation module. The airspace management module is also connected to a collaborative operation module and a safety supervision module. The collaborative operation module manages the flight activities of aircraft, collects information and intelligence, and makes emergency rescue responses. The safety supervision module mainly supervises low-altitude enforcement, enterprise personnel, and aircraft. The airspace management module also includes an infrastructure management module and a landing verification module.
[0024] In particular, the system module assembly includes a visualization module, which displays the nature and hierarchical classification of airspace, the planning and design of air routes, and the planning and construction status of ground facilities and other infrastructure. This facilitates real-time understanding of aircraft operation status, the usability of airspace, air routes, and ground facilities, as well as weather conditions. After obtaining the initial urban air traffic design scheme, the objective function is to maximize the overall air route network capacity efficiency and minimize the overall air route network transportation cost. Constraints include flight altitude, minimum path segment length, maximum turning angle, maximum climb angle, maximum range, and maximum takeoff mass. A multi-objective function optimization model for urban air traffic is constructed. The system module assembly also includes a calculation module, which solves for the optimal urban air traffic design scheme based on the initial urban air traffic design scheme and the multi-objective function optimization model. The optimal urban air traffic design scheme is obtained by constructing a multi-objective function optimization model for urban air traffic and using heuristic algorithms such as genetic algorithms to solve the optimization model based on the initial urban air traffic design scheme.
[0025] The above description is only a preferred embodiment of the present invention, but the scope of protection of the present invention is not limited thereto. Any equivalent substitutions or modifications made by those skilled in the art within the scope of the technology disclosed in the present invention, based on the technical solution and inventive concept of the present invention, should be covered within the scope of protection of the present invention.
Claims
1. An urban air traffic planning and design auxiliary system, comprising a system module assembly, characterized in that, The system module assembly includes an information model module, a basic data module, a database, an information acquisition module, an airspace design module, a ground design module, and a platform interface module. The airspace design module includes an airspace planning module, a route design module, and an aircraft performance analysis module, and is connected to the information acquisition module and the database. The airspace design module is also connected to a design verification module. The information acquisition module collects urban traffic information and geographic information, and then, based on the cooperation of the information model module, the basic data module, and the aircraft performance analysis module, establishes a performance analysis database for vertical takeoff and landing (VTOL) and general aviation aircraft. The information acquisition module is connected to an interface module, which is connected to the information model module. The information model module is connected to a mechanism rule verification module. When designing routes, the airspace design module first generates a topology map of the route network structure, then obtains preset indicators for each route node, and selects route nodes whose rankings meet preset conditions as route points for the proposed traffic construction. Initial traffic is then constructed proportionally at each route point to obtain the initial urban air traffic design scheme. The ground design module includes a takeoff and landing site module, a support facility module, and a supporting facility module.
2. The urban air traffic planning and design auxiliary system according to claim 1, characterized in that, The information acquisition module includes an electromagnetic module, which detects electromagnetic information in the environment and uploads it to the information acquisition module.
3. The urban air traffic planning and design auxiliary system according to claim 1, characterized in that, The airspace planning module and route design module are connected to the airspace management module, which includes a supervision and management module and a dynamic allocation module.
4. The urban air traffic planning and design auxiliary system according to claim 3, characterized in that, The airspace management module is connected to a collaborative operation module and a safety supervision module. The collaborative operation module manages the flight activities of aircraft, collects information and intelligence, and makes emergency rescue responses. The safety supervision module mainly monitors low-altitude investigations, enterprise personnel, and aircraft.
5. The urban air traffic planning and design auxiliary system according to claim 4, characterized in that, The airspace management module also includes an infrastructure management module and a landing verification module.
6. The urban air traffic planning and design auxiliary system according to claim 1, characterized in that, The system module assembly includes a visualization module, which displays the nature and hierarchical classification of airspace, the planning and design of air routes, and the planning and construction of ground facilities and other infrastructure.
7. The urban air traffic planning and design auxiliary system according to claim 1, characterized in that, After obtaining the initial urban air traffic design scheme, the objective functions are to maximize the overall air route network capacity efficiency and minimize the overall air route network transportation cost. The constraints are flight altitude constraint, minimum path segment length constraint, maximum turning angle constraint, maximum climb angle constraint, maximum range constraint, and maximum takeoff mass constraint. A multi-objective function optimization model for urban air traffic is constructed.
8. The urban air traffic planning and design auxiliary system according to claim 7, characterized in that, The system module assembly includes a calculation module, which solves for the optimal urban air traffic design scheme based on the initial urban air traffic design scheme and the urban air traffic multi-objective function optimization model.