Tree Detection using AI
Tree Detection from Drone and Aerial Imagery

The proposed deep learning model aims at automatic detection and identification of individual trees from high-resolution images acquired using drones and aerial vehicles. Through the use of advanced computer vision and deep learning techniques, the model can aid in the conversion of large volumes of aerial images into useful geospatial information for various purposes, including forestry management, vegetation inventory, urban planning, environmental assessment, and land management.
Automated detection of trees from aerial images is a useful technique for agencies that require monitoring of vegetation cover over large geographic areas. The manual identification and mapping of trees through traditional methods can be slow, costly, and cumbersome. The proposed model aims to help users speed up the process of detecting trees and obtaining tree-level information from the high-resolution images.
The model is quite useful for processing images acquired from unmanned aerial vehicles (UAVs) as well as drones. Drone and aerial imagery data can provide useful spatial information along with good geographic coverage and thus prove helpful for vegetation monitoring applications over time.
Using the DeepForest framework, the proposed model uses a deep learning-based approach to object detection that was specifically developed to detect trees in aerial high-resolution RGB imagery. The training was conducted on data from the National Ecological Observatory Network (NEON).
The following possible use cases could be identified: forest inventories and monitoring, urban forestry, vegetation management, ecology-related studies, habitat evaluation, environmental monitoring, landscape analysis, and other tasks. The model could also be integrated into more complex geospatial and remote sensing workflows that require automatic extraction of tree positions.
Tree detection algorithms can be useful for forestry specialists, GIS analysts, researchers, environmental organizations, urban planners, and many others, as this will allow them to automate the image interpretation process, analyze large aerial datasets, and start working with the detected trees.
In conclusion, the model combines deep learning, aerial imagery, computer vision, and geospatial analysis techniques in order to provide an efficient method of extracting information about trees in high-resolution aerial images.
