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NOMNOMNAVI

We are developing a smart delivery robot to help solve the need for sustainable and efficient food delivery systems in densely populated areas such as the university campus. Campuses often face challenges related to congestion, pollution, and inefficient use of resources associated with current delivery methods. By introducing an autonomous, solar-powered robot for food delivery, the university can address these issues by reducing carbon emissions, alleviating traffic congestion, and optimizing resource usage. This solution not only improves the overall sustainability of food delivery operations but also enhances the campus experience for students, faculty, and staff by providing convenient and environmentally friendly access to food services

UN SUSTAINABILITY DEVELOPMENT GOALS

Empowered and Driven:
Delivering Solutions for Global Issues

Affordable and clean energy – UN Goal 7:
– Use of solar panels
– Reduces reliance on fossil fuels
– Improve communal use of renewable energy on campus

Decent Work and Economic Growth – UN Goal 8:
– Stimulates economic growth
– Lowers cost as solar is used
– Allows students to partake in technological development

Industry, Innovation and Infrastructure – UN Goal 9:
– Innovation in realm of sustainable transport
– Brings together students to solve real world problem

DESIGN STORY

Challenges
``The 2 main challenges we are tackling is usage of renewable energy and convenience Usage of renewable energy - better for environment - reduces fossil fuel consumption Convenience - faster food delivery for students - allows students to eat whilst working without breaking focus and improving nutrition - reducing foot traffic in restaurants - accessibility ``
Solution
``The robot will utilize solar panels and will serve as an alternative to current delivery methods – like cars/mopeds/bikes - which utilize non-renewable resources Allows students to feel like a part of the university whilst also being able to get food without the struggle of leaving their study space unattended, waiting for the food in their queue The robot will aid the infrastructure of the university by upkeeping the sales for the university and the development of innovative solutions as the partnered restaurants will implement docking stations for the robots to charge them``
Use Case
The delivery robot will start off university based, where it will deliver food to students from restaurants local to the university. As development continues, the robots will be branched out to more restaurants, like Nando’s and KFC (restaurants favored by students). With this, we will be able to expand the delivery services to not just students in university but also customers who order takeaway from the partnered restaurants

TECHNOLOGIES

List of Essential Tools and Technologies

THE PROCESS

PROTOTYPE DESIGN

A four-wheeled robot which holds food inside a container. The container is insulated to keep the food warm / cold during the delivery process. The robot will have a secure lid to prevent the lid from being loose or accidentally opened. The lid will open when the correct code has been entered. The robot also utilizes ultrasonic sensors to avoid obstacles in the way and rely on moving around in buildings via line tracking

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Stage 1

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Stage 2

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Stage 3

Online Marketing
Creative agency
Web development

PLEDGE

Impact on the market

Our smart delivery robot, Nacho, is in more than one market, the delivery robot market, and the online food delivery market. Our product is currently in a niche market, at its starting point, due to the robot being specifically designed for university students. Our product is university based, as this robot is designed to deliver food to students at their current locations, to enable them to focus on studying whilst looking after their mental health and increase their motivation. This prevents students from leaving their study area to grab food from the canteen, as most times there are long queues to wait in. With this product, students can be more efficient and implement self-care. In the future, our plan is to grow into a mass market as we expand our product into restaurants

RESULTS

FINAL PRODUCT

Our small delivery robot started as a 3D printed design, brought to life by our programming that controls movement and uses obstacle avoidance. Serial communication acts as the handshake between our robot and a user-designed app. This app allows users to send commands directly to the robot and receive updates on the robot’s progress. Essentially, we’ve built a mini delivery robot controlled by a custom app to deliver food to students

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Results 1

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Results 2

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Results 3