Cona Smart Scooter Design by Junwei Dong |
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| DESIGN NAME: Cona PRIMARY FUNCTION: Smart Scooter Design INSPIRATION: Inspired by the concept of intermodality and shared bike systems, this project aims to enhance urban commuting through a smart, shared scooter system. Motivated by the challenges of urban congestion and the need for sustainable travel, the Cona scooter utilizes IoT technologies and autonomous navigation. The concept of a smart, shared scooter system seamlessly connects individual journeys with public transport systems. The shared scooter will carry passengers to their destinations by selecting and riding different public transportation modes to help people to improve the efficiency of travel. UNIQUE PROPERTIES / PROJECT DESCRIPTION: With the development of driverless technology and smart cities, compared with traditional scooters, the project plans to design a seamless commuting travel chain upon a smart scooter design in the context of urban commuting in 2035. Users integrate into this intermodality travel system through the Cona scooter and multi-person vehicles to simplify the way people travel and improve travel efficiency. After interacting with the interface on the handle, the Cona scooter guides passengers through routes and other vehicle choices. Passengers use Cona to automatically transfer to different multi-passenger public transportation to reach their destinations. OPERATION / FLOW / INTERACTION: The smart scooter is operated via a user-friendly interface on the smart screen display which is located at the handle of the scooter, allowing riders to unlock the scooter, plan routes, and monitor status indicators such as battery life and speed. Interaction occurs through unlocking the scooter by facial recognition. Autonomous features, activated through the interface, enable route and vehicle selection optimization. The Cona Scooter will take the riders to automatically transfer to different multi-passenger public transportation to reach their destinations, thus increasing travel efficiency, reducing traffic congestion, and offering a safer, more efficient travel experience. The integration of GPS and IoT connectivity ensures seamless navigation and intermodality, linking with public transport systems for a streamlined urban commute. PROJECT DURATION AND LOCATION: N/A FITS BEST INTO CATEGORY: Vehicle, Mobility and Transportation Design |
PRODUCTION / REALIZATION TECHNOLOGY: The frame is crafted from aerospace-grade aluminum, utilizing laser cutting for precision and efficiency. The integration of 3D printing facilitates the production of complex, custom components, such as connections and smart screen casing. Autonomous driving capabilities are enabled through advanced sensor technology, including LIDAR and ultrasonic sensors, combined with sophisticated AI algorithms for real-time navigation and obstacle detection. Recycled PBT plastic composites are used for body panels, emphasizing sustainability. The Cona scooter fixture will be placed in the other multiplayer carriers and parking areas, allowing it to be parked safely and securely, embodying the principles of intermodality and smart urban mobility. SPECIFICATIONS / TECHNICAL PROPERTIES: The smart scooter system is designed with dimensions of 620mm length*300mm width*850mm height, for compact storage and ease of integration with other transport modes. It weighs approximately 21kg, balancing durability and portability. The scooter is powered by a lithium-ion battery. It features a smart screen display on the handlebar for navigation and scooter status, and incorporates LIDAR, cameras, and ultrasonic sensors for autonomous navigation capabilities, enhancing safety and user experience. TAGS: Smart Scooter Design, Intermodality system design, Shared Scooter System Design, Shared single-occupancy vehicle system design, Shared Scooter system design based on intermodality concept, Intermodality, RESEARCH ABSTRACT: This design research, rooted in exploratory and applied methodologies, aimed to innovate urban mobility through smart, shared scooters. The objectives were to enhance intermodality, reduce congestion, and promote sustainability. The methodology involved internet review, case studies, and user surveys, with data collection facilitated by digital questionnaires. Participants included urban commuters. Results indicated a high demand for flexible, eco-friendly transport options. Insights revealed the importance of user-friendly interfaces and seamless public transport integration. CHALLENGE: The creative challenge is integrating a smart scooter system within diverse urban infrastructures. Navigating regulatory landscapes and ensuring compliance with varied local laws presented hurdles, alongside optimizing production capabilities for sustainable materials and advanced technologies. It requires innovative design thinking, extensive collaboration with urban planners and public commuting system managers, and leveraging the latest in smart technologies and sustainable materials. ADDED DATE: 2024-02-28 08:44:38 TEAM MEMBERS (1) : Lead Designer: Junwei Dong IMAGE CREDITS: Junwei Dong, 2023. |
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