Building an Autonomous System for Low-Speed Delivery Vehicles

Open
Telebotics
Canada
Omid Sadeghi
CEO
(5)
4
Project
Academic experience
80 hours of work total
Learner
Canada
Intermediate level

Project scope

Categories
Robotics Engineering project management Hardware product design
Skills
autonomous system operational efficiency actuators engineering design process sensors scalability systems architecture systems design remote operation cost benefit analysis
Details

The project aims to develop an autonomous solution for low-speed vehicles (LSVs) used in last-mile delivery, focusing on cost-effectiveness and enhanced functionality. The primary goal is to integrate advanced safety systems and remote operation capabilities into these vehicles. By addressing key safety and operational challenges, the project seeks to improve the efficiency of LSVs in urban and suburban environments. Learners will apply their knowledge of autonomous systems, sensor integration, and remote control technologies to create a scalable solution. The project encourages innovation in vehicle automation, ensuring that the developed system is both practical and adaptable to various delivery scenarios.

Deliverables

Students will work collaboratively to complete the following tasks and deliverables:


1-Safety Research and Analysis Report

  • Conduct research on safety challenges for low-speed vehicles in urban settings.
  • Deliver a report identifying key risks and proposing sensor placements for safe operation.

2-System Design Documentation

  • Define technical requirements for an autonomous solution, focusing on remote operation and safety systems.
  • Provide a detailed system architecture diagram integrating hardware and software components.

3-Simulation and Testing Plan

  • Develop scenarios for testing the solution, focusing on safety, navigation, and operational efficiency.
  • Document the methodology for future simulation and evaluation.

4-Prototype Blueprint

  • Create a detailed design blueprint for a functional autonomous prototype.
  • Specify components, including sensors, actuators, and remote operation tools.

5-Cost Analysis and Recommendations

  • Conduct a cost-benefit analysis of various configurations for sensors and systems.
  • Deliver a report with recommendations for the most cost-effective solutions.

6-Final Project Report and Presentation

  • Compile all research, designs, and analyses into a comprehensive report.
  • Prepare a concise presentation summarizing key findings, deliverables, and next steps for stakeholders.


Mentorship
Domain expertise and knowledge

Providing specialized, in-depth knowledge and general industry insights for a comprehensive understanding.

Skills, knowledge and expertise

Sharing knowledge in specific technical skills, techniques, methodologies required for the project.

Hands-on support

Direct involvement in project tasks, offering guidance, and demonstrating techniques.

Tools and/or resources

Providing access to necessary tools, software, and resources required for project completion.

Regular meetings

Scheduled check-ins to discuss progress, address challenges, and provide feedback.

Supported causes

The global challenges this project addresses, aligning with the United Nations Sustainable Development Goals (SDGs). Learn more about all 17 SDGs here.

Industry, innovation and infrastructure

About the company

Company
Canada
2 - 10 employees
Transport, trucking & railroad, Automotive, Technology
Representation
2slgbtqia+-owned

With a foundation in micromobility and the auto industry, we're revolutionizing deliveries with our network of automated robots. A fresh, scalable approach to logistics.