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Instance Segmentation to Estimate Consumption of Corn Ears by Wild Animals for GMO Preference Tests
Shrinidhi Adke1,2, Karl Haro von Mogel3, Yu Jiang4
1Institute of Artificial Intelligence, University of Georgia, Athens, GA, United States.
Researchers developed a deep learning pipeline to analyze images of corn consumption by wild animals. This method accurately estimates non-GMO corn intake, aiding GMO corn experiments.
Area of Science:
- Agricultural Science
- Computer Science
- Ecology
Background:
- Wild animals' feeding preferences between GMO and non-GMO corn are not fully understood.
- Assessing corn consumption in wildlife requires accurate, scalable methods for analyzing image data.
Purpose of the Study:
- To develop and validate a deep learning-based image processing pipeline for estimating corn consumption by wild animals.
- To apply this pipeline to analyze image data from a Genetically Modified (GMO) Corn Experiment.
Main Methods:
- Instance segmentation using Mask Regional Convolutional Neural Network (Mask R-CNN) to identify corn and bare cob in images.
- Comparison of two segmentation approaches: whole corn ears vs. bare cob without kernels.
- Ablation studies to optimize the Mask R-CNN model for corn consumption estimation.
Main Results:
- The approach segmenting bare cob without kernels demonstrated superior performance and accuracy.
- The optimized Mask R-CNN model achieved high accuracy in corn consumption estimation (R² = 0.99) compared to manual labeling.
- The developed pipeline effectively processes complex image data from the GMO Corn Experiment.
Conclusions:
- Deep learning-based instance segmentation with Mask R-CNN provides a highly accurate method for estimating corn consumption.
- This approach can be reliably applied to analyze extensive image datasets for wildlife feeding preference studies.
- The methodology holds potential for broader applications in plant phenotyping, including yield estimation and stress quantification.
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