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Presentation Slides Link: https://app.pitch.com/app/presentation/e85a8c0a-5551-45b1-97f3-d82d245a0bbe/082ee45a-ddbc-4f4e-bec5-26ac37454fb2/58ba1ce9-3af8-4e8b-8c74-8dabb2007959

Slide 1: Title Slide (5 sec) - Dhruv Upadhyay

Slide 2: Introduction (Team Introduction & Member Expertise) (1 min)

Dhruv:

  • Executive Director, responsible for overall team operations and direction

Ethan:

  • Electrical Lead: responsible for wiring the drone and testing electrical systems

Ayoung:

  • Work on sensor driver integration and testing.

Hamza:

Nathan:

Slide 3: Introducing Icarus (UAMS Design) (3 min)

  • Picture of Icarus & General Icarus Introduction - Dhruv Upadhyay

  • Buzzwords

    • Adaptability (Dhruv Upadhyay) - Able to perform efficiently in any environment regardless of weather and distance.

      • Problem Statement: Big city airports are not easily accessible and require a significant amount of space of runways

      • Quadplane, quad for constrained takeoff/landings (e.g. urban environments), fixed-wing for longer-distance operations

    • Modularity (Nathan Green) - Movable cabin, variable cargo (can move the cabin around)

      • Add graph about different applications

        • Different cabin design can easily be added for varying number of passengers, different occupants (e.g. Cargo)

    • Convenience - Ayoung Eun (French)

      • Supports autonomous operations via multiple cameras and redundant sensors

        • Less human staff required to operate the system

      • Problems that we will be solving:

        • Since COVID, there was pilot shortage to operate aircraft.

        • Also, the price to operate such machine increases as the day goes by. To address this issue…

        • Easy to maintain through removable landing gear, wings, wing-spars, etc. ‘- That’s modularity

Slide 4: Use Cases (1.5 min) - Ethan Abraham

  • Long Range Passenger Transport

    • We have designed Icarus with two key use cases in mind, which make it the ideal solution to urban air transport.

    • The first, is long range passenger transport. Passengers want to be able to travel longer distances in a more efficient manner. Icarus in its fixed-wing configuration can provide 30 minutes of flight time and 40 km of travel.

    • Furthermore, Icarus will be flying in high-density areas with skyscrapers and other aircrafts. Therefore it is imperative that it has collision detection and avoidance technology. Icarus was designed with these safety concerns in mind, by featuring 3 different camera perspectives, a controlled lighting system for night-time travel, and a wide variety of sensors so that we can get information on all aspects of the aircraft at any given time.

  • On-Demand Passenger Transport

    • The second key use case is on-demand passenger transport. In a big city environment, a common problem is often transporting multiple passengers to different destinations around the city.

    • Adaptability between quad and fixed-wing allows for landing in constrained locations where a fixed-wing cannot land

    • Modularity of cabin allows for different sizes of passenger cabins

  • Autonomous capabilities offers further convenience as ____. Since Icarus is able to carry out 100s of trips a day, Icarus is integrated with cloud computing to calculate optimized routes to deliver as many passengers as possible as efficiently as possible

Slide 5: Conclusion & Why Icarus? (1.5 min) - Hamza Ali

  • Loopback to three major points for Icarus (Adaptability, Modularity, Convenience)

  • These three key points make our drone very effective for use in various applications such as long range passenger transport and point-to-point pickup and dropoff

  • Features such as hybrid quad/fixed-wing and autonomous operations allow for more efficient and less human-centric operations

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