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Detecting plant species in the field with deep learning and drone technology

机译:深度学习和无人科技检测植物种类

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Aerial drones are providing a new source of high-resolution imagery for mapping of plant species of interest, amongst other applications. On-board detection algorithms could open the door to allow for applications in which drones can intelligently interact with their environment. However, the majority of plant detection studies have focused on detection in post-flight processed orthomosaics. Greater research into developing detection algorithms robust to real-world variations in environmental conditions is necessary, such that they are suitable for deployment in the field under variable conditions. We outline the steps necessary to develop such a system, show by example how real-world considerations can be addressed during model training and briefly illustrate the performance of our best performing model in the field when integrated with an aerial drone. Our results show that introducing variations in brightness as an additional augmentation strategy during training is beneficial when dealing with real-life data. We achieved a 27% improvement in the F1-score obtained on the unseen test set when using this approach. Further improvements to the model performance were obtained through the use of weight map-based loss, accounting for uncertainty in the annotation masks due to the indistinct nature of the edges of the target plants using weighting. This resulted in a 15% improvement in precision for the best configuration of hyper-parameters, yielding a final model with an F1-score of 83% and accuracy of 96%. Finally, results computed on the fly show that such a system is deployable in the field. This study shows that it is possible for a commercially available drone, integrated with a deep learning model, to detect invasive plants in the field and demonstrates methodology which could be applied to developing similar systems for other plant species of interest. The ability to perform detection on the fly is necessary for future applications in which intelligent interaction between a drone and its environment is required.
机译:空中无人机提供了一种新的高分辨率图像来源,用于绘制植物物种的兴趣,在其他应用中。板载检测算法可以打开门,以允许无人机可以智能地与其环境互动的应用。然而,大多数植物检测研究都集中在飞行后的正交矫形器的检测。需要更大的开发检测算法对环境条件的实际变化的强大研究是必要的,使得它们适用于在可变条件下在该领域进行部署。我们概述了开发这样一个系统所需的步骤,通过示例在模型培训期间如何解决实际考虑,并简要说明当与空中无人机集成时我们最好的表现模型的性能。我们的结果表明,在培训期间引入亮度变化作为培训期间的额外增强策略在处理现实生活数据时是有益的。在使用这种方法时,我们在看不见的试验集上获得的F1分数提高了27%。通过使用基于重量图的损耗来获得模型性能的进一步改善,因为使用加权的目标植物的边缘的模糊性质,注释面具中的不确定性占据了不确定性。这导致高度配置的精度提高了15%,产生了最终模型,F1分数为83%,精度为96%。最后,在飞行中计算的结果表明,这种系统可以在现场部署。该研究表明,商业上可获得的无人机可以与深层学习模型集成,以检测该领域的侵入性植物,并证明可以应用于为其他植物物种的类似系统应用的方法。对于未来的应用,无人机与其环境之间的智能相互作用的未来应用是必要的。

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