The ability to analyze single cells via flow cytometry has resulted in a wide range of biological and medical applications. Currently, there is no established framework to compare and interpret time-series flow cytometry data for cell engineering applications. Manual analysis of temporal trends is time-consuming and subjective for large-scale datasets. We resolved this bottleneck by developing TEmporal Gaussian Mixture models (TEGM), an unbiased computational strategy to quantify and predict temporal trends of developing cell subpopulations indicative of cellular phenotype.. Please click Additional Files below to see the full abstract
Flow Cytometry (FCM) is widely used to investigate and diagnose human disease. Although high-through...
The advancement of biotechnologies has led to indispensable high-throughput techniques for biologica...
Microbial flow cytometry can rapidly characterize the status of microbial communities. Upon measurem...
The ability to analyze single cells via flow cytometry has resulted in a wide range of biological an...
AbstractMulti-parametric flow cytometry is a key technology for characterization of immune cell phen...
International audienceMulti-parametric flow cytometry is a key technology for characterization of im...
Abstract-I Background: Heterogeneous cell populations have previously been described as noisy. Howe...
Background: The capability of flow cytometry to offer rapid quantification of multidimensional chara...
The dramatic increase in the complexity of flow cytometric datasets requires the development of new ...
Motivation: Cell fate decisions have a strong stochastic component. The identification of the underl...
Manual gating is the traditional procedure adopted to identify cellular clusters from multi-dimensio...
High-content imaging and single-cell genomics are two of the most prominent high-throughput technolo...
We present a new approach to the handling and interrogating of large flow cytometry data where cell ...
AbstractFlow cytometric analysis enables the simultaneous single-cell interrogation of multiple biom...
Flow cytometry (FCM) is a technology that allows the rapid quantification of physical and chemical p...
Flow Cytometry (FCM) is widely used to investigate and diagnose human disease. Although high-through...
The advancement of biotechnologies has led to indispensable high-throughput techniques for biologica...
Microbial flow cytometry can rapidly characterize the status of microbial communities. Upon measurem...
The ability to analyze single cells via flow cytometry has resulted in a wide range of biological an...
AbstractMulti-parametric flow cytometry is a key technology for characterization of immune cell phen...
International audienceMulti-parametric flow cytometry is a key technology for characterization of im...
Abstract-I Background: Heterogeneous cell populations have previously been described as noisy. Howe...
Background: The capability of flow cytometry to offer rapid quantification of multidimensional chara...
The dramatic increase in the complexity of flow cytometric datasets requires the development of new ...
Motivation: Cell fate decisions have a strong stochastic component. The identification of the underl...
Manual gating is the traditional procedure adopted to identify cellular clusters from multi-dimensio...
High-content imaging and single-cell genomics are two of the most prominent high-throughput technolo...
We present a new approach to the handling and interrogating of large flow cytometry data where cell ...
AbstractFlow cytometric analysis enables the simultaneous single-cell interrogation of multiple biom...
Flow cytometry (FCM) is a technology that allows the rapid quantification of physical and chemical p...
Flow Cytometry (FCM) is widely used to investigate and diagnose human disease. Although high-through...
The advancement of biotechnologies has led to indispensable high-throughput techniques for biologica...
Microbial flow cytometry can rapidly characterize the status of microbial communities. Upon measurem...