UAV Airspace UI for Ruleset-Based Area Management
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Solution Overview
Problem
Existing systems require manual reprogramming by system engineers for airspace management, leading to delays and errors in defining and modifying digital airspace areas for UAV operations, as they lack user-friendly interfaces for administrators.
Innovation Solution
An information collection user-interface (UI) that allows supervisors to easily select area classifiers, draw or upload 2D geometry, and define altitude and time dimensions for creating and managing digital airspace areas, enabling efficient and error-free management of UAV operations.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Measurement precision
If manual reprogramming by system engineers is used for airspace management, then system control precision is maintained, but operation time and error rate increase
Solution Approach 1:
The system enables administrators to independently define and manage digital airspace areas through a user-friendly interface without requiring system engineers. The interface allows direct input of geographical boundaries, altitude ranges, and temporal parameters, with the system automatically generating and validating the airspace definitions. This self-service capability maintains precision through automated validation while eliminating the time loss associated with manual reprogramming cycles.
Solution Approach 2:
A user-friendly interface acts as an intermediary between administrators and the complex airspace management system. The interface translates simple administrative inputs into precise digital airspace definitions through automated processing. This intermediary layer handles the complexity of coordinate conversion, boundary validation, and system integration, allowing administrators to define airspace quickly without sacrificing precision.
2Reliability
If manual reprogramming by system engineers is used for airspace management, then system control is maintained, but operational complexity increases
Solution Approach 1:
The system transfers airspace management capabilities from system engineers to administrators through a self-service interface. The interface provides guided workflows, template selection, and automated validation that simplify the process while maintaining system reliability. Administrators can define airspace using intuitive tools without exposing themselves to the underlying system complexity.
Solution Approach 2:
The user-friendly interface serves as an intermediary that shields administrators from system complexity while maintaining reliable control. The interface handles coordinate transformations, boundary validations, and system integrations automatically, presenting a simplified interaction model that reduces operational complexity without compromising reliability.
3Stability of the object's composition
If manual reprogramming is used for airspace management, then system stability is maintained, but productivity decreases
Solution Approach 1:
The self-service interface enables administrators to independently create and modify digital airspace areas without requiring system engineer intervention. The interface includes automated validation and generation capabilities that maintain system stability while dramatically improving productivity. Administrators can rapidly define multiple airspace areas with consistent accuracy, eliminating the bottleneck of manual reprogramming.
Solution Approach 2:
The system provides pre-configured templates and automated validation rules that prepare airspace definitions before they are finalized. This preliminary action ensures stability by catching errors early in the process while improving productivity by reducing the number of iterative revisions needed. The interface automatically generates airspace data structures and performs consistency checks before implementation.
Data Source
AI summary
An unmanned aerial vehicle fleet management system initiates creation of a digital airspace area of operation, presents in a user interface an area classifier selection field configured to select from a set of available area classifiers; receives first user input classifying the digital airspace area of operation as an oversight area; presents a ruleset selection field; receives second user input specifying one or more rulesets of the oversight area; creates the oversight area based at least in part on the first and second inputs; and creates a pilot area associated with the oversight area that inherits the specified ruleset(s) of the oversight area. The oversight area and pilot area define areas of operation of different types for different classes of users, such as pilots and flight operations managers. The specified ruleset(s) comprise rules related to flight approvals. Flight missions can be created or altered based on the specified ruleset(s).