Design and Analysis of a Solar Energy System for a Fruit Harvesting Robot in Pakistan

Abstract

In order to meet the growing agricultural demands, modern machinery needs to be deployed and cheaper energy supply needs to be ensured. With advancements in artificial intelligence, fruit harvesting robots can improve both the quality and productivity of fruit picking and increase orange fruit exports. However, to ensure effective working of the fruit harvesting robot, an energy source that is both efficient and cost-effective is necessary. This paper aims at designing of a solar energy system for a lightweight fruit harvesting robot for orange orchards in Pakistan and conducting a feasibility study for the deployment of the robot for remote agricultural land. The site for fruit harvesting robot employment is decided by irradiance using random forest regression. Solar system sizing is done based on the design and energy requirements of the fruit harvesting robot. The Homer Pro software is used for simulation of the system to analyse the potential of using solar system for fruit harvesting robot in Sargodha, Pakistan. The results show that compared to hybrid system, a stand-alone system is a more cost effective, reliable, and efficient option with a payback time of 3.36 years and levelized cost of energy being $0.085 per unit kWh. This study proves that solar energy is a viable and cheaper solution for using modern agricultural machineries, like fruit harvesting robot, in remote areas in developing countries, like Pakistan, to enhance productivity and improving quality of the produce.

Design and research of a fully automatic tree planting machine mechanism

“…At present, solar energy is becoming increasingly popular, such as Zeeshan Sadaf, which uses solar energy systems in the fruit harvesting robot, which also uses solar energy as the main power source. [6] Through the calculation and analysis of the radiation amount of solar panels with different inclination angles, the maximum amount of radiation is received when the inclination angle is 37° [ 7] based on this, a kind of bracket is designed, which can be adjusted independently in a certain range according to different working time periods and different illumination angles. to ensure the continuous direct sunlight of solar panels, and further improve the utilization rate of solar energy.…”