A method for real-time classification of insect vectors of mosaic and brown streak disease in cassava plants for future implementation within a low-cost, handheld, in-field multispectral imaging sensor.
Joseph FennellCharles VeysJose DingleJoachim NwezeobiSharon van BrunschotJohn ColvinBruce D GrievePublished in: Plant methods (2018)
This study demonstrates that through an integration of both the spatial data, associated with the multispectral images being used to separate different regions of the insect, and subsequent spectral analysis of those sub-regions, that B. tabaci viral vectors can be differentiated from other cryptic species, that appear morphologically indistinguishable to a human observer, with an accuracy of up to 98%. The implications for the engineering design for an in-field, handheld, sensor system is discussed with respect to the learning gained from this initial stage of the methodology development.
Keyphrases
- low cost
- fluorescence imaging
- deep learning
- optical coherence tomography
- endothelial cells
- machine learning
- high resolution
- healthcare
- primary care
- sars cov
- gene therapy
- aedes aegypti
- current status
- photodynamic therapy
- quality improvement
- magnetic resonance imaging
- computed tomography
- artificial intelligence
- zika virus