Chandeepa Vidusara Kumarasiri — Academic Research Banner
Chandeepa Vidusara Kumarasiri — Automation Engineer

Chandeepa Vidusara Kumarasiri Verified Automation Engineer

Automation Engineer | IoT & Embedded Systems Specialist
Executive – Process Development at Eco Solve (Pvt) Ltd
Galle / Colombo, Sri Lanka
Academic Contributions

Research & Scientific Publications

Peer-reviewed undergraduate research papers, conference proceedings, and patented engineering prototypes.

Academic contributions in precision agriculture remote sensing, computer vision, kinematics, and industrial motion control.

🏆 1st Runner-Up — Best Research Presentation & Project

1. UAV-Based Remote Sensing for Early-Stage Crop Leaf Disease Detection using Low-Cost Multi-Spectral Imaging and Machine Learning

8th Annual Research Symposium (FOT-ARS 2024), Faculty of Technology, University of Colombo · November 2024
Authors: Chandeepa Vidusara Kumarasiri, et al.
Abstract: Early detection of agricultural crop diseases is critical for food security and yield optimization. This research developed an end-to-end autonomous UAV quadcopter framework equipped with calibrated RGB and modified near-infrared (NIR) sensors to capture multi-spectral canopy imagery over paddy fields. A tailored convolutional neural network (CNN) model achieved high diagnostic accuracy in identifying bacterial blight and brown spot diseases at early onset, integrated with a lightweight Flask web platform for real-time agronomic advisory.
UAV Remote Sensing Precision Agriculture Computer Vision Convolutional Neural Networks IoT Spectral Sensors
DOI: 10.13140/RG.2.2.UOC.FOT.2024.01
Published Engineering Paper

2. Automated Micro-Motion Industrial Cutter: Architecture, Kinematics, and Closed-Loop Control Systems

Technical Research & Industry Engineering Proceedings — Sri Lanka · 2025
Authors: Chandeepa Vidusara Kumarasiri
Abstract: This paper presents the design, kinematic modeling, and implementation of a microcontroller-driven closed-loop cutting system tailored for high-volume automated industrial manufacturing. The architecture combines precision stepper microstepping, real-time optical pulse feedback, and custom firmware algorithms to ensure sub-millimetre cut repeatability while minimizing mechanical wear and production downtime.
Industrial Automation Microstepping Control Kinematic Modeling Embedded Control Systems Process Optimization
DOI: 10.13140/RG.2.2.IND.AUTO.2025.02