Artificial neural networks for 3D cell shape recognition from confocal images
G. Simionato, K. Hinkelmann, R. Chachanidze, P. Bianchi, E. Fermo, R., van Wijk, M. Leonetti, C. Wagner, L. Kaestner, S. Quint

TL;DR
This paper introduces a dual-stage neural network system that analyzes 3D cell shapes from microscopy images, using spherical harmonics for feature extraction to enable accurate, unbiased classification for medical diagnostics.
Contribution
The novel dual-stage neural network architecture effectively captures fine 3D shape details and automates cell classification based on spherical harmonics features, improving diagnostic accuracy.
Findings
Successfully tested on red blood cells from healthy donors and patients
Revealed characteristic shape features through spherical harmonics spectrum
Provides reproducible and unbiased shape recognition for diagnostics
Abstract
We present a dual-stage neural network architecture for analyzing fine shape details from microscopy recordings in 3D. The system, tested on red blood cells, uses training data from both healthy donors and patients with a congenital blood disease. Characteristic shape features are revealed from the spherical harmonics spectrum of each cell and are automatically processed to create a reproducible and unbiased shape recognition and classification for diagnostic and theragnostic use.
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Taxonomy
TopicsDigital Imaging for Blood Diseases · Cell Image Analysis Techniques · Medical Image Segmentation Techniques
