Search alternatives:
marked decrease » marked increase (Expand Search)
label decrease » global decrease (Expand Search), larger decrease (Expand Search), levels decreased (Expand Search)
large decrease » larger decrease (Expand Search), large increases (Expand Search), large degree (Expand Search)
marked decrease » marked increase (Expand Search)
label decrease » global decrease (Expand Search), larger decrease (Expand Search), levels decreased (Expand Search)
large decrease » larger decrease (Expand Search), large increases (Expand Search), large degree (Expand Search)
-
1
-
2
-
3
-
4
-
5
-
6
<b>Supporting data for manuscript</b> "<b>Voluntary locomotion induces an early and remote hemodynamic decrease in the large cerebral veins</b>"
Published 2025“…<p dir="ltr">The CSV file 'Eyreetal_DrainingVein_SourceData' contains the averaged time series traces and extracted metrics from individual experiments used across Figures 1-5 in the manuscript "Voluntary locomotion induces an early and remote hemodynamic decrease in the large cerebral veins". …”
-
7
-
8
-
9
-
10
-
11
-
12
Continuous, Label-Free Phenotyping of Single Cells Based on Antibody Interaction Profiling in Microfluidic Channels
Published 2025“…Using computational imaging, numerous cells are tracked across a large field of view (12 × 3 mm<sup>2</sup>) and the resulting motion profiles are used for phenotypic cell characterization. …”
-
13
Continuous, Label-Free Phenotyping of Single Cells Based on Antibody Interaction Profiling in Microfluidic Channels
Published 2025“…Using computational imaging, numerous cells are tracked across a large field of view (12 × 3 mm<sup>2</sup>) and the resulting motion profiles are used for phenotypic cell characterization. …”
-
14
Continuous, Label-Free Phenotyping of Single Cells Based on Antibody Interaction Profiling in Microfluidic Channels
Published 2025“…Using computational imaging, numerous cells are tracked across a large field of view (12 × 3 mm<sup>2</sup>) and the resulting motion profiles are used for phenotypic cell characterization. …”
-
15
Continuous, Label-Free Phenotyping of Single Cells Based on Antibody Interaction Profiling in Microfluidic Channels
Published 2025“…Using computational imaging, numerous cells are tracked across a large field of view (12 × 3 mm<sup>2</sup>) and the resulting motion profiles are used for phenotypic cell characterization. …”
-
16
Continuous, Label-Free Phenotyping of Single Cells Based on Antibody Interaction Profiling in Microfluidic Channels
Published 2025“…Using computational imaging, numerous cells are tracked across a large field of view (12 × 3 mm<sup>2</sup>) and the resulting motion profiles are used for phenotypic cell characterization. …”
-
17
Continuous, Label-Free Phenotyping of Single Cells Based on Antibody Interaction Profiling in Microfluidic Channels
Published 2025“…Using computational imaging, numerous cells are tracked across a large field of view (12 × 3 mm<sup>2</sup>) and the resulting motion profiles are used for phenotypic cell characterization. …”
-
18
Continuous, Label-Free Phenotyping of Single Cells Based on Antibody Interaction Profiling in Microfluidic Channels
Published 2025“…Using computational imaging, numerous cells are tracked across a large field of view (12 × 3 mm<sup>2</sup>) and the resulting motion profiles are used for phenotypic cell characterization. …”
-
19
Continuous, Label-Free Phenotyping of Single Cells Based on Antibody Interaction Profiling in Microfluidic Channels
Published 2025“…Using computational imaging, numerous cells are tracked across a large field of view (12 × 3 mm<sup>2</sup>) and the resulting motion profiles are used for phenotypic cell characterization. …”
-
20
Continuous, Label-Free Phenotyping of Single Cells Based on Antibody Interaction Profiling in Microfluidic Channels
Published 2025“…Using computational imaging, numerous cells are tracked across a large field of view (12 × 3 mm<sup>2</sup>) and the resulting motion profiles are used for phenotypic cell characterization. …”