Detection of human disease conditions by single-cell morpho-rheological phenotyping of blood

Nicole Toepfner(University of Cambridge), C. Herold(Technische Universität Dresden), Oliver Otto(Technische Universität Dresden), Philipp Rosendahl(Technische Universität Dresden), Angela Jacobi(Technische Universität Dresden), Martin Kräter(University Hospital Carl Gustav Carus), Julia Stächele(University Hospital Carl Gustav Carus), Leonhard Menschner(University Hospital Carl Gustav Carus), Maik Herbig(Technische Universität Dresden), Laura Ciuffreda(University of Glasgow), Lisa Ranford‐Cartwright(University of Glasgow), Michał Grzybek(Deutsches Diabetes-Zentrum e.V.), Ünal Coskun(Deutsches Diabetes-Zentrum e.V.), Elisabeth Reithuber(Karolinska University Hospital), Geneviève Garriss(Karolinska University Hospital), Peter Mellroth(Karolinska University Hospital), Birgitta Henriques‐Normark(Karolinska University Hospital), Nicola Tregay(University of Cambridge), Meinolf Suttorp(University Hospital Carl Gustav Carus), Martin Bornhäuser(University Hospital Carl Gustav Carus), Edwin R. Chilvers(University of Cambridge), Reinhard Berner(University Hospital Carl Gustav Carus), Jochen Guck(Technische Universität Dresden)
eLife
January 12, 2018
Cited by 163Open Access
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Abstract

Blood is arguably the most important bodily fluid and its analysis provides crucial health status information. A first routine measure to narrow down diagnosis in clinical practice is the differential blood count, determining the frequency of all major blood cells. What is lacking to advance initial blood diagnostics is an unbiased and quick functional assessment of blood that can narrow down the diagnosis and generate specific hypotheses. To address this need, we introduce the continuous, cell-by-cell morpho-rheological (MORE) analysis of diluted whole blood, without labeling, enrichment or separation, at rates of 1000 cells/sec. In a drop of blood we can identify all major blood cells and characterize their pathological changes in several disease conditions in vitro and in patient samples. This approach takes previous results of mechanical studies on specifically isolated blood cells to the level of application directly in blood and adds a functional dimension to conventional blood analysis.


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