Analytical Chemistry · 2019 · 44 citations · 40 references
ComputingBiomedical EngineeringComputer ScienceBiomedical ImagingMachine LearningSurface ScienceDeep LearningLabel-free ImagingPlasmonic MaterialsPlasmonicsScattering AnalysisScattering TheoryConvolutional Neural NetworksDeep Learning DetectionDeep Learning For Label-free ImagingDeep Learning-based DetectionLabel-free AssaysLabel-free DetectionMicroscopyMolecular Detection Assays
A deep learning approach has been taken to improve detection characteristics of surface plasmon microscopy (SPM) of light scattering. Deep learning based on the convolutional neural network algorithm was used to estimate the effect of scattering parameters, mainly the number of scatterers. The improvement was assessed on a quantitative basis by applying the approach to SPM images formed by coherent interference of scatterers. It was found that deep learning significantly improves the accuracy over conventional detection: the enhancement in the accuracy was shown to be significantly higher by almost 6 times and useful for scattering by polydisperse mixtures. This suggests that deep learning can be used to find scattering objects effectively in the noisy environment. Furthermore, deep learning can be extended directly to label-free molecular detection assays and provide considerably improved detection in imaging and microscopy techniques.
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