The BLAUSTEIN Foundation is at the forefront of research into the comprehensive aspects of flying vehicles. Our work encompasses flying cars, roadable aircraft, personal air vehicles, flying public transport (buses and taxis), flying cargo carriers, and innovative technologies such as jet suits. This research includes all technical, legal, commercial, medical, and ethical dimensions of implementing flying vehicles. We simulate possible scenarios and identify new opportunities and potential risks associated with these advancements.
Summary
Flying vehicles represent a transformative leap in transportation technology, offering new possibilities for personal, public, and cargo transport. The BLAUSTEIN Foundation’s research aims to address the multifaceted challenges and benefits of this emerging technology through detailed analysis and simulation.
Areas of Research
- Development of Technology and Simulations
- Innovating and refining flying vehicle technology through extensive simulations and real-world testing.
- Simulating all potential situations, including emergency scenarios, to ensure safety, efficiency, and reliability.
- Industrial Standards and Regulations
- Establishing comprehensive industrial standards for manufacturing and operating flying vehicles.
- Developing standardized traffic rules for air travel, including detailed instructions for drivers, flying police (Aviapolice), and ground operators.
- Implementing a system of fines and penalties for violations of air traffic rules.
- Training and Certification
- Developing training programs for drivers of flying vehicles, ensuring they meet stringent safety and operational standards.
- Training ground operators in air traffic control and management to ensure smooth and safe airspace operations.
- Creating specialized training for flying police and other law enforcement agencies to handle unique challenges posed by air traffic.
- Establishing certification programs for issuing and renewing driving licenses for flying vehicles.
- Infrastructure Development
- Designing and building infrastructure for flying cars, air taxis, air buses, and flying cargo carriers.
- Establishing service and refueling/recharging stations (Flightation) on rooftops and other strategic locations.
- Developing ground infrastructure, including take-off, landing, and mooring platforms such as flying platforms and Parconies.
- Creating systems for technical inspection and regular maintenance of flying vehicles.
- Regulatory Frameworks
- Formulating policies for the safe operation, testing, and commissioning of flying vehicles.
- Establishing licensing protocols for companies providing air traffic services and ground operators.
- Implementing bans on certain categories of citizens and items from using flying vehicles, and restricting flights in specific airspaces.
- Developing conditions and circumstances for safe take-off, landing, and mooring of flying vehicles.
- Enforcing the Human Primacy Rule, which allows humans to override AI actions and take full control of the vehicle.
- Creating an international register of flying and driverless flying vehicles.
- Developing insurance frameworks for flying vehicles, drivers, and passengers.
- Prioritizing special-purpose flying vehicles, such as police, ambulances, and other emergency services.
- Developing a system of number plates for flying vehicles and mandating the installation of embedded GPS chips for tracking and identification.
- Safety and Emergency Systems
- Implementing advanced collision avoidance systems to prevent mid-air collisions.
- Developing autopilot and emergency vehicle control systems, including external control by ground operators.
- Establishing airborne rescue and interception systems to address emergencies and prevent hijackings.
- Exploring the use of parachutes and other emergency equipment to enhance safety.
- Developing virtual air traffic signs and real-time communication channels between drivers and ground control.
- Enforcing the mandatory use of black boxes and dash cameras in flying vehicles to identify causes of air crashes and improve safety protocols.
- Technological Advancements
- Creating advanced navigation systems and air routes/corridors for flying vehicles.
- Developing signaling systems, audio-visual alerts, and communication formats for safe air traffic management.
- Exploring energy sources, including solar power and long-term batteries, for sustainable flying vehicle operation.
- Investigating the feasibility of autopilot systems, robotic drivers, and fully autonomous flying vehicles.
- Developing Brainaxon technology for direct brain-to-vehicle control, enhancing user experience and vehicle responsiveness (Brainriding).
- Ethical and Medical Considerations
- Addressing ethical issues related to privacy, safety, and equitable access to flying vehicle technology.
- Establishing stringent medical requirements for drivers and operators to ensure they are fit to manage the unique demands of flying vehicles.
- Legal and Governmental Roles
- Updating and creating new legislative frameworks to support the widespread use of flying vehicles.
- Defining the roles and responsibilities of government agencies at various levels in regulating and supporting flying vehicle technology.
- Ensuring compliance with international aviation laws and coordinating with global regulatory bodies.
- Commercial Applications
- Exploring commercial uses of flying vehicles for personal transportation, public transit, and cargo delivery.
- Developing business models for air taxis, flying buses, and cargo carriers to enhance urban mobility and logistics.
- Military Applications
- Investigating potential military uses of flying vehicles, including reconnaissance, logistics, and combat operations.
- Developing protocols to prevent the malicious or criminal use of flying vehicles.
Technology
The development of flying vehicle technology involves a multi-faceted approach:
- Navigation Systems
- Developing sophisticated navigation systems for precise control and safe travel of flying vehicles.
- Air Routes and Corridors
- Creating designated air routes and flight levels to organize the movement of flying vehicles and prevent congestion.
- Signaling and Alerts
- Implementing audio and visual signaling systems, along with standardized communication channels between flying vehicles.
- Flight Information Systems
- Developing systems to inform ground operators of planned flights and ensure coordinated air traffic management.
- Refueling/Recharging Infrastructure
- Establishing refueling and recharging stations on skyscraper rooftops (Flightation) and other strategic locations.
- Exploring the feasibility of in-air refueling to extend flight durations.
- Ground Infrastructure
- Building infrastructure for the take-off, landing, and mooring of flying vehicles.
- Creating facilities for technical inspection and regular maintenance.
- Autopilot and Robotic Systems
- Investigating the use of autopilot, robotic drivers, and fully autonomous flying vehicles.
- Developing emergency control systems for external takeover by ground operators.
- Public Air Transportation
- Developing infrastructure and systems for public air transportation, including air taxis and flying buses.
- Rescue and Interception Systems
- Establishing airborne rescue and interception systems to handle emergencies and prevent hijackings.
- Safety Systems
- Developing collision avoidance systems and virtual air traffic signs.
- Exploring the use of parachutes and other emergency equipment to enhance safety.
- Brainaxon Control
- Developing technology for controlling flying vehicles directly from the human brain (Brainaxon), enhancing user experience and responsiveness.
- Energy Sources
- Investigating various energy sources, including solar energy and long-term batteries, for sustainable operation of flying vehicles.
- Jet Suits and Other Innovations
- Exploring the development and use of jet suits and other innovative flying technologies.
Terminology
- Aviarescue Vehicle, also known as the Flying Vehicle Towing Service or Flying Tow Truck, is a specialized airborne vehicle designed to intercept and tow other flying vehicles mid-air to a safe parking location.
- Aviacaptain is a specialized navigation and information system installed in every flying vehicle. It serves as the operating system of a flying vehicle, ensuring safe and efficient air navigation and vehicle management.
- Aviatraffic Center refers to a government agency or a licensed private company that operates a ground control center for flight operations and support for drivers of flying vehicles.
- Aviaroad refers to an air corridor specifically designated for flying vehicles. These corridors are established and maintained by government agencies or licensed private companies, known as Aviaroad Operators, to ensure organized and safe air traffic.
- Parcony are specially equipped balconies of private residential apartments, offices, and businesses (such as hotels, restaurants, and shops) designed for the docking, parking, take-off, and landing of flying vehicles.
- Flightation is a specialized refueling/charging and service station situated on the rooftops of skyscrapers, designed to accommodate flying vehicles.
- Aviarights, or Private Flying Space Rights, refer to the legal entitlement to navigate through designated airspace over private property. The concept of Aviarights ensures that private property owners retain control over the airspace above their land while facilitating the growth of aerial transportation infrastructure.
- Aviatoll is a fee levied on private and commercial flying vehicles for the use of designated air routes, managed either by the state or private companies (Aviaroad Operators) that lay and operate these routes.
- Aviapolice is a specialized law enforcement unit dedicated to ensuring the safety, security, and regulatory compliance of air traffic involving flying vehicles. Aviapolice officers undergo rigorous training and are equipped with specialized knowledge and tools to manage and oversee the complexities of air transport safety.
- Aviadefense is a licensed private company responsible for ensuring the safety and compliance of air traffic regulations for various flying vehicles.
- Brainriding is a cutting-edge technology based on Brain-computer Interface Technology (Brainaxon) that allows flying vehicles to be controlled directly from the human brain.
- Human Primacy Rule is the right of a human to block, override, and overrule the actions of AI in AI-managed flying vehicles.
Potential Dangerous Situations in Air Traffic
The BLAUSTEIN Foundation’s research includes exploring various dangerous scenarios to enhance safety measures:
- Collision Between Flying Vehicles: Developing robust collision avoidance systems and protocols.
- Lack of Landing Options: Creating emergency landing procedures and infrastructure.
- Engine Malfunction: Implementing reliable emergency response systems and maintenance protocols.
- Fuel or Charge Depletion: Ensuring efficient refueling/recharging systems and monitoring energy levels.
- Poor Visibility: Enhancing navigation systems and visual aids to cope with adverse weather conditions.
- Bird Strikes: Designing protective measures to prevent wildlife collisions.
- Severe Weather Conditions: Establishing protocols for operating in adverse weather, including storm evasion strategies.
- Air Traffic Jams: Managing air traffic flow to prevent congestion and delays.
- Erratic Behavior of Other Drivers: Developing systems to handle unpredictable actions of other flying vehicles.
- Loss of Contact with Ground Control: Ensuring reliable communication systems and backup protocols.
- Navigation System Failures: Implementing redundant navigation solutions to prevent disorientation.
- Exceeding Permissible Weight: Monitoring and regulating vehicle weight to ensure safe operation.
- Crossing State Borders and No-fly Zones: Enforcing strict airspace regulations to prevent unauthorized flights.
Conclusion
The BLAUSTEIN Foundation is dedicated to advancing the research and development of flying vehicles, addressing the complex interplay of technical, legal, medical, and ethical considerations. By fostering innovation and ensuring safety and regulatory compliance, we aim to unlock the full potential of flying vehicle technology for a safer, more efficient, and sustainable future.



