Bee-harvest
Project Type: AR Game
Date: 2023 - Present
Technology:
Figma, Axure, Unity, Photoshop, Xmind
Members: Chen Wang, XiangLi
My Role: UX Designer
PDF link:Bee-harvest
Breadfruit, known as a fruit that can 'feed all humanity', plays an important role in reducing global greenhouse gas emissions and has already taken a place in the markets of Europe and North America. However, due to the high growth rate of breadfruit and the simple picking tools, it is difficult to pick and the harvesting efficiency is low. Moreover, the crop growth cycle is long, and a large number of repetitive picking operations can easily cause muscle and bone damage to the picking personnel. So, the harvesting system utilizes ground track form to complete the entire orchard crop harvesting, sorting, packing, and transportation process with a "set of equipment", completing a "low" cost and "high" technological content harvesting mode.
Background
"Bee Harvest" High-Altitude Crop Collection System. This collection system is primarily designed to harvest high-altitude crops with significant economic value and high yields, aiming to address the challenges of low efficiency and difficulty associated with their collection. Taking the example of the breadfruit crops produced in Yunnan, the system is being designed.
Existing robot crop pickers mainly utilize wheeled robots for collection but tend to need help with high-altitude crops. In contrast, uncrewed aerial vehicles are susceptible to the influence of crop branches and leaves, thus leading to low harvesting efficiency. In contrast, this collection system employs the ground rail form, utilizing a single set of equipment to complete the entire crop collection within the orchard, thereby creating a "low" cost yet "high" technological content collection system. This design system comprises ground rails, elevating platforms, a mechanical claw for picking crops, a collection and sorting crop collection bin, and a conveyor belt to transport crops. Upon the completion of the ground rail deployment in the orchard, the operation trajectory is set at the back end of the system. The elevating platform coordinates with the mechanical claw and the collection bin during the operation. The mechanical claw descends, detects, and captures the crops, cuts the fruit from the stem, places it in the collection bin, and sorts the fruit by size based on its inherent structure. Once the collection weight limit is reached, the fruit is lowered and deposited into the collection box on the conveyor belt. The conveyor belt then transports the crops, completing the entire collection process.