Automated Vertical Takeoff Aircraft Transport System
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Solution Overview
Problem
Existing passenger transport systems, such as buses and trains, often face capacity constraints and inefficiencies in urban areas, requiring costly infrastructure expansions that occupy significant space, while existing aerial transport systems lack the operational safety and flexibility to adapt to changing environmental conditions.
Innovation Solution
A transport system utilizing vertical takeoff and landing aircraft with automated flight operations, connected through a network of handling facilities equipped with sensors for environmental monitoring, enabling continuous air traffic management and emergency parking capabilities to ensure safe and efficient passenger transport without the need for extensive infrastructure.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Productivity
If existing passenger transport systems (buses, trains) are expanded to increase capacity, then transport capacity is improved, but infrastructure space requirements and costs increase significantly
Solution Approach 1:
The patent transitions passenger transport from ground-based (2D surface) to air-based (3D space) operations. Vertical takeoff and landing aircraft operate in the aerial dimension, allowing multiple flight paths and routes above urban areas without requiring additional ground infrastructure space. This dimensional shift enables high-capacity transport while minimizing footprint on the ground.
Solution Approach 2:
The transport system is divided into independent aircraft units that operate autonomously on separate flight paths. Each aircraft is a self-contained transport module with its own propulsion, navigation, and control systems. This segmentation allows flexible routing and parallel operations without requiring integrated ground infrastructure like railways or bus terminals.
2Productivity
If automated flight operations are implemented, then operational efficiency and safety are improved, but system complexity increases
Solution Approach 1:
Aircraft are equipped with autonomous systems that perform self-navigation, self-monitoring, and self-correction during flight. Environmental sensors automatically detect conditions and trigger appropriate responses without human intervention. The system serves itself through automated decision-making algorithms that manage flight operations, reducing the need for complex human-operated control infrastructure.
Solution Approach 2:
The system implements continuous feedback loops where environmental sensors monitor conditions (wind, precipitation, temperature) and automatically adjust flight operations. The control system receives real-time data from sensors and makes instantaneous decisions to maintain safety and efficiency. This closed-loop feedback mechanism simplifies complexity by using standardized sensor-controller-actuator patterns throughout the system.
3Reliability
If emergency parking capacity is maintained at all handling facilities, then safety and operational reliability are improved, but infrastructure complexity and space requirements increase
Solution Approach 1:
Handling facilities pre-allocate and maintain reserved emergency parking spaces that are kept ready in advance for potential emergencies. These spaces are designated beforehand and maintained in a standby state, allowing immediate aircraft parking when environmental conditions deteriorate or emergencies occur, without requiring last-minute infrastructure adjustments.
Solution Approach 2:
Each handling facility is equipped with localized emergency parking capacity tailored to its specific location and operational needs. Rather than requiring a centralized complex emergency infrastructure, each facility independently maintains appropriate emergency capabilities based on local environmental risks and traffic patterns, simplifying the overall system architecture.
4Reliability
If sensors for environmental monitoring are deployed on aircraft, then safety and adaptability to environmental conditions are improved, but device complexity and cost increase
Solution Approach 1:
Aircraft are equipped with multi-functional environmental sensor suites that monitor multiple parameters (wind speed, precipitation, temperature, visibility) using integrated sensor arrays. These universal sensors serve multiple purposes: navigation assistance, weather forecasting, emergency detection, and flight path optimization. This multi-functionality reduces the need for separate specialized sensors for each environmental parameter, simplifying the overall device complexity.
Applied Scientific Principles
This section explains which scientific principles are used to turn an abstract innovation direction into a practical engineering solution.
Function Achieved in This Case
This system enhances passenger transport capacity and safety by allowing automated, efficient, and flexible air traffic management, reducing infrastructure requirements and enabling quick passenger transport with minimal space usage, while ensuring energy efficiency and rapid response to environmental disruptions.
Implementation Method 1
environmental conditions are detected by sensors, at least by a fire detector, smoke detector, wind detector and/or precipitation detector
Implementation Method 2
environmental conditions are detected by sensors, at least by a fire detector, smoke detector, wind detector and/or precipitation detector
Implementation Method 3
environmental conditions are detected by sensors, at least by a fire detector, smoke detector, wind detector and/or precipitation detector
Implementation Method 4
environmental conditions are detected by sensors, at least by a fire detector, smoke detector, wind detector and/or precipitation detector
Data Source
Figure 1
AI summary
The invention relates to a method for operating a transport system for passenger transportation, comprising the following steps: providing a plurality of vertically taking-off and vertically landing aircraft for passengers; providing a plurality of handling facilities for the take-off and landing of aircraft, wherein each handling facility has parking spaces for a plurality of aircraft; setting-up air routes between the handling facilities so that each handling facility is connected to at least one further handling facility via an air route, wherein there is continuous air traffic of aircraft on the air routes, at least in one flight direction, with automated take-off, automated flight along the air routes, and automated landing.