Date created
2023-08-06
Resource type
Authors/Contributors
Author (aut): Respicio, Robert
Author (aut): Mousavifard, Makan
Author (aut): Lorenzo-Luaces, Alejandro
Author (aut): Khodabakhsh, Pouria
Author (aut): Tesar, Chris
Author (aut): Sheppard, Gregory
Author (aut):
Abstract
ADAScooter is addressing concerns regarding the safety of electric scooters by developing a safety device called ScootPilot. ScootPilot is an advanced driver assistance system that monitors the environment for potential hazards and adjusts the speed of the e-scooter accordingly. It aims to prioritize the safety of riders and pedestrians by preventing accidents or collisions. The device includes a radar sensor for obstacle detection, a speed controller, and an automatic brake in emergency scenarios. The development of ScootPilot is divided into three stages: proof-of-concept, engineering prototype, and production phase.
However, there are potential risks involved with ScootPilot, including over-reliance on the system, potential government restrictions, and user acceptance. Benefits include reduced risk of e-scooter collisions, public compliance with regulations, road safety, and economic benefits. The success of ScootPilot depends on user behavior and decision-making, government decisions, and marketing efforts to encourage user acceptance.
ADAScooter has a competitive advantage by increasing the user base as currently, a majority of e-scooter riders are men due to safety concerns women have surrounding the use of e-scooters. ScootPilot could influence people previously concerned with safety to become new users, reducing the risk of collisions. This would compel e-scooter rental companies to incorporate safety products such as ScootPilot.
The success of ScootPilot depends on user behavior and decision-making, government decisions, and marketing efforts to encourage user acceptance. Ultimately, ScootPilot can contribute to the adoption of more sustainable forms of transportation by making e-scooters a safer alternative.
However, there are potential risks involved with ScootPilot, including over-reliance on the system, potential government restrictions, and user acceptance. Benefits include reduced risk of e-scooter collisions, public compliance with regulations, road safety, and economic benefits. The success of ScootPilot depends on user behavior and decision-making, government decisions, and marketing efforts to encourage user acceptance.
ADAScooter has a competitive advantage by increasing the user base as currently, a majority of e-scooter riders are men due to safety concerns women have surrounding the use of e-scooters. ScootPilot could influence people previously concerned with safety to become new users, reducing the risk of collisions. This would compel e-scooter rental companies to incorporate safety products such as ScootPilot.
The success of ScootPilot depends on user behavior and decision-making, government decisions, and marketing efforts to encourage user acceptance. Ultimately, ScootPilot can contribute to the adoption of more sustainable forms of transportation by making e-scooters a safer alternative.
Description
Undergraduate Engineering Science students are required to complete a group-based, two-course capstone sequence: ENSC 405W and ENSC 440. Groups form company structures and create an innovative product that potentially acts as a solution to a real-life problem. This collection archives the following assignments: proposal, design specifications, requirements specifications, and proof of concept.
Document
Copyright statement
Copyright is held by the author(s).
Scholarly level
Language
English
Download file | Size |
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ADAScooter-design-specifications-2023.pdf | 5.73 MB |