Category:Flow cytometry

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flow cytometry

technique of suspending cells in a stream of fluid and passing them by an electronic detection apparatus

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Subclass of

analytical technique
cytophotometry
cell sorting
separation process

Authority file
Q1141429 NDL Authority ID: 00576268 NL CR AUT ID: ph124759 National Library of Israel J9U ID: 987007538452005171
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English: Flow cytometry is a method in cell biology that employs the deflection of laser light a well as the excitation of fluorescent dyes to analyse various properties of a high number cells in a relatively short time. This category lists methods and tools used in flow cytometry.

Subcategories

This category has the following 4 subcategories, out of 4 total.

C

Flow cytometers‎ (5 F)
Cytometry‎ (2 C, 14 F)

I

Immunophenotyping‎ (4 F)

R

Recombinant GPI-Anchored TIMP-1 Stimulates Growth and Migration of Peritoneal Mesothelial Cells‎ (5 F)

Pages in category "Flow cytometry"

This category contains only the following page.

*

Flow cytometer

Media in category "Flow cytometry"

The following 200 files are in this category, out of 340 total.

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A-Novel-Microtubule-Inhibitor-4SC-207-with-Anti-Proliferative-Activity-in-Taxane-Resistant-Cells-pone.0079594.s001.ogv 5.3 s, 315 × 306; 271 KB
A-Novel-Microtubule-Inhibitor-4SC-207-with-Anti-Proliferative-Activity-in-Taxane-Resistant-Cells-pone.0079594.s002.ogv 8.9 s, 240 × 240; 160 KB
A-Novel-Microtubule-Inhibitor-4SC-207-with-Anti-Proliferative-Activity-in-Taxane-Resistant-Cells-pone.0079594.s003.ogv 9.9 s, 378 × 258; 230 KB
A-Novel-Microtubule-Inhibitor-4SC-207-with-Anti-Proliferative-Activity-in-Taxane-Resistant-Cells-pone.0079594.s004.ogv 8.6 s, 246 × 246; 125 KB
A-Novel-Microtubule-Inhibitor-4SC-207-with-Anti-Proliferative-Activity-in-Taxane-Resistant-Cells-pone.0079594.s005.ogv 17 s, 374 × 441; 2.29 MB
A-Novel-Microtubule-Inhibitor-4SC-207-with-Anti-Proliferative-Activity-in-Taxane-Resistant-Cells-pone.0079594.s006.ogv 17 s, 364 × 307; 1.52 MB
A-Novel-Microtubule-Inhibitor-4SC-207-with-Anti-Proliferative-Activity-in-Taxane-Resistant-Cells-pone.0079594.s007.ogv 17 s, 374 × 298; 1.48 MB
A-Novel-Model-of-Intravital-Platelet-Imaging-Using-CD41-ZsGreen1-Transgenic-Rats-pone.0154661.s001.ogv 12 s, 400 × 400; 2.89 MB
A-Novel-Model-of-Intravital-Platelet-Imaging-Using-CD41-ZsGreen1-Transgenic-Rats-pone.0154661.s002.ogv 25 s, 1,024 × 348; 3.32 MB
A-Novel-Model-of-Intravital-Platelet-Imaging-Using-CD41-ZsGreen1-Transgenic-Rats-pone.0154661.s003.ogv 25 s, 1,024 × 348; 359 KB
A-Novel-Technique-for-the-In-Vivo-Imaging-of-Autoimmune-Diabetes-Development-in-the-Pancreas-by-Two-pone.0015732.s001.ogv 10 s, 1,141 × 676; 1.97 MB
A-Novel-Technique-for-the-In-Vivo-Imaging-of-Autoimmune-Diabetes-Development-in-the-Pancreas-by-Two-pone.0015732.s002.ogv 5.7 s, 1,024 × 1,024; 2.77 MB
A-Novel-Technique-for-the-In-Vivo-Imaging-of-Autoimmune-Diabetes-Development-in-the-Pancreas-by-Two-pone.0015732.s003.ogv 5.0 s, 1,536 × 512; 2.27 MB
A-Novel-Technique-for-the-In-Vivo-Imaging-of-Autoimmune-Diabetes-Development-in-the-Pancreas-by-Two-pone.0015732.s004.ogv 3.0 s, 2,048 × 460; 296 KB
A-Novel-Technique-for-the-In-Vivo-Imaging-of-Autoimmune-Diabetes-Development-in-the-Pancreas-by-Two-pone.0015732.s005.ogv 5.0 s, 786 × 600; 3.17 MB
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A-Precise-Temperature-Responsive-Bistable-Switch-Controlling-Yersinia-Virulence-ppat.1006091.s013.ogv 13 s, 514 × 326; 506 KB
A-Precise-Temperature-Responsive-Bistable-Switch-Controlling-Yersinia-Virulence-ppat.1006091.s014.ogv 6.3 s, 400 × 506; 133 KB
A-Precise-Temperature-Responsive-Bistable-Switch-Controlling-Yersinia-Virulence-ppat.1006091.s015.ogv 7.5 s, 400 × 534; 114 KB
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Analysis-of-Cells-Targeted-by-Salmonella-Type-III-Secretion-In-Vivo-ppat.0030196.sv001.ogv 16 s, 558 × 524; 264 KB
Analysis-of-Cells-Targeted-by-Salmonella-Type-III-Secretion-In-Vivo-ppat.0030196.sv002.ogv 13 s, 542 × 476; 254 KB
Analysis-of-Cells-Targeted-by-Salmonella-Type-III-Secretion-In-Vivo-ppat.0030196.sv003.ogv 13 s, 542 × 476; 175 KB
Analysis-of-Cells-Targeted-by-Salmonella-Type-III-Secretion-In-Vivo-ppat.0030196.sv004.ogv 13 s, 542 × 476; 195 KB
Analysis-of-Cells-Targeted-by-Salmonella-Type-III-Secretion-In-Vivo-ppat.0030196.sv005.ogv 13 s, 542 × 476; 204 KB
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Application-of-a-Genetically-Encoded-Biosensor-for-Live-Cell-Imaging-of-L-Valine-Production-in-pone.0085731.s003.ogv 30 s, 584 × 720; 1.69 MB
Application-of-a-Genetically-Encoded-Biosensor-for-Live-Cell-Imaging-of-L-Valine-Production-in-pone.0085731.s004.ogv 24 s, 776 × 720; 1.54 MB
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Application-of-a-Genetically-Encoded-Biosensor-for-Live-Cell-Imaging-of-L-Valine-Production-in-pone.0085731.s006.ogv 32 s, 888 × 720; 1.39 MB
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Bim-and-Bmf-Synergize-To-Induce-Apoptosis-in-Neisseria-Gonorrhoeae-Infection-ppat.1000348.s011.ogv 1.1 s, 328 × 306; 51 KB
Bim-and-Bmf-Synergize-To-Induce-Apoptosis-in-Neisseria-Gonorrhoeae-Infection-ppat.1000348.s012.ogv 11 s, 300 × 294; 936 KB
Biofilm-Induced-Tolerance-towards-Antimicrobial-Peptides-pone.0001891.s001.ogv 0.0 s, 512 × 480; 18.13 MB
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CD44-Is-a-Negative-Cell-Surface-Marker-for-Pluripotent-Stem-Cell-Identification-during-Human-pone.0085419.s008.ogv 17 s, 854 × 480; 6.34 MB
Cell Sorting Diagram.jpg 2,784 × 4,032; 10.04 MB
Cells-Expressing-the-CEBPbeta-Isoform-LIP-Engulf-Their-Neighbors-pone.0041807.s006.ogv 23 s, 640 × 480; 655 KB
Cells-Expressing-the-CEBPbeta-Isoform-LIP-Engulf-Their-Neighbors-pone.0041807.s007.ogv 53 s, 512 × 500; 1.99 MB
Cells-Expressing-the-CEBPbeta-Isoform-LIP-Engulf-Their-Neighbors-pone.0041807.s008.ogv 8.5 s, 1,392 × 1,040; 423 KB
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Cells-Expressing-the-CEBPbeta-Isoform-LIP-Engulf-Their-Neighbors-pone.0041807.s010.ogv 21 s, 530 × 512; 754 KB
Cells-Expressing-the-CEBPbeta-Isoform-LIP-Engulf-Their-Neighbors-pone.0041807.s011.ogv 25 s, 512 × 512; 276 KB
Characterization-of-a-Distinct-Population-of-Circulating-Human-Non-Adherent-Endothelial-Forming-pone.0046996.s003.ogv 21 s, 320 × 240; 294 KB
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Characterization-of-AKT-independent-effects-of-the-synthetic-AKT-inhibitors-SH-5-and-SH-6-using-an-1471-2407-10-287-S6.ogv 28 s, 210 × 214; 855 KB
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Contribution-of-Caspase(s)-to-the-Cell-Cycle-Regulation-at-Mitotic-Phase-pone.0018449.s003.ogv 24 s, 450 × 376; 426 KB
Contribution-of-Caspase(s)-to-the-Cell-Cycle-Regulation-at-Mitotic-Phase-pone.0018449.s004.ogv 24 s, 450 × 376; 470 KB
Contribution-of-Caspase(s)-to-the-Cell-Cycle-Regulation-at-Mitotic-Phase-pone.0018449.s005.ogv 24 s, 450 × 376; 428 KB
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Contribution-of-Caspase(s)-to-the-Cell-Cycle-Regulation-at-Mitotic-Phase-pone.0018449.s008.ogv 49 s, 680 × 512; 1.41 MB
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Crystallization-of-DNA-coated-colloids-ncomms8253-s7.ogv 17 s, 696 × 520; 27.44 MB
Crystallization-of-DNA-coated-colloids-ncomms8253-s8.ogv 20 s, 384 × 288; 11.91 MB
Crystallization-of-DNA-coated-colloids-ncomms8253-s9.ogv 20 s, 720 × 576; 14.23 MB
CXCR4CXCL12-Participate-in-Extravasation-of-Metastasizing-Breast-Cancer-Cells-within-the-Liver-in-a-pone.0030046.s001.ogv 1.2 s, 800 × 600; 1.9 MB
CXCR4CXCL12-Participate-in-Extravasation-of-Metastasizing-Breast-Cancer-Cells-within-the-Liver-in-a-pone.0030046.s002.ogv 1.2 s, 800 × 600; 1.89 MB
CXCR7-Functions-as-a-Scavenger-for-CXCL12-and-CXCL11-pone.0009175.s001.ogv 6.3 s, 335 × 311; 243 KB
CXCR7-Functions-as-a-Scavenger-for-CXCL12-and-CXCL11-pone.0009175.s002.ogv 5.7 s, 321 × 340; 186 KB
Cytometer ru.svg 924 × 624; 77 KB
Cytometer.svg 924 × 624; 65 KB
Cytotoxic-Effect-of-Poly-Dispersed-Single-Walled-Carbon-Nanotubes-on-Erythrocytes-In-Vitro-and-In-pone.0022032.s001.ogv 9.3 s, 1,280 × 1,024; 2.54 MB
Defined-Essential-8™-Medium-and-Vitronectin-Efficiently-Support-Scalable-Xeno-Free-Expansion-of-pone.0151264.s004.ogv 15 s, 604 × 480; 2.24 MB
Defined-Essential-8™-Medium-and-Vitronectin-Efficiently-Support-Scalable-Xeno-Free-Expansion-of-pone.0151264.s005.ogv 20 s, 604 × 480; 345 KB
Defined-Essential-8™-Medium-and-Vitronectin-Efficiently-Support-Scalable-Xeno-Free-Expansion-of-pone.0151264.s006.ogv 10 s, 604 × 480; 197 KB
Detachment-of-Breast-Tumor-Cells-Induces-Rapid-Secretion-of-Exosomes-Which-Subsequently-Mediate-pone.0024234.s002.ogv 18 s, 480 × 480; 577 KB
Detachment-of-Breast-Tumor-Cells-Induces-Rapid-Secretion-of-Exosomes-Which-Subsequently-Mediate-pone.0024234.s003.ogv 7.6 s, 480 × 480; 1.43 MB
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Development-of-an-In-Vitro-Model-for-the-Multi-Parametric-Quantification-of-the-Cellular-pone.0032621.s011.ogv 1 min 10 s, 640 × 480; 11.91 MB
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Distinct-External-Signals-Trigger-Sequential-Release-of-Apical-Organelles-during-Erythrocyte-ppat.1000746.s015.ogv 12 s, 99 × 99; 93 KB
Divergent-JAM-C-Expression-Accelerates-Monocyte-Derived-Cell-Exit-from-Atherosclerotic-Plaques-pone.0159679.s005.ogv 8.0 s, 280 × 268; 1.08 MB
Divergent-JAM-C-Expression-Accelerates-Monocyte-Derived-Cell-Exit-from-Atherosclerotic-Plaques-pone.0159679.s006.ogv 3.0 s, 720 × 540; 2.08 MB
Duchflusszytometer.png 3,160 × 3,035; 476 KB
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Dynamic-Imaging-of-CD8+-T-Cells-and-Dendritic-Cells-during-Infection-with-Toxoplasma-gondii-ppat.1000505.s006.ogv 10 s, 466 × 470; 494 KB
Dynamic-Imaging-of-CD8+-T-Cells-and-Dendritic-Cells-during-Infection-with-Toxoplasma-gondii-ppat.1000505.s007.ogv 20 s, 688 × 548; 2.66 MB
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Dynamic-Imaging-of-CD8+-T-Cells-and-Dendritic-Cells-during-Infection-with-Toxoplasma-gondii-ppat.1000505.s009.ogv 5.3 s, 595 × 505; 741 KB
Dynamics-of-Macrophage-Trogocytosis-of-Rituximab-Coated-B-Cells-pone.0014498.s003.ogv 4.0 s, 112 × 148; 48 KB
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Dynamics-of-Macrophage-Trogocytosis-of-Rituximab-Coated-B-Cells-pone.0014498.s006.ogv 4.0 s, 352 × 208; 236 KB
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Efficient-Removal-of-Platelets-from-Peripheral-Blood-Progenitor-Cell-Products-Using-a-Novel-Micro-pone.0023074.s001.ogv 3.6 s, 1,280 × 1,024; 263 KB
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Enhanced-Generation-of-Induced-Pluripotent-Stem-Cells-from-a-Subpopulation-of-Human-Fibroblasts-pone.0007118.s002.ogv 23 s, 240 × 180; 1.27 MB
Entamoeba-histolytica-Cysteine-Proteinase-5-Evokes-Mucin-Exocytosis-from-Colonic-Goblet-Cells-via-ppat.1005579.s004.ogv 4.9 s, 1,104 × 1,104; 6.74 MB
Entamoeba-histolytica-Cysteine-Proteinase-5-Evokes-Mucin-Exocytosis-from-Colonic-Goblet-Cells-via-ppat.1005579.s005.ogv 4.5 s, 1,236 × 1,236; 4.43 MB
Entamoeba-histolytica-Cysteine-Proteinase-5-Evokes-Mucin-Exocytosis-from-Colonic-Goblet-Cells-via-ppat.1005579.s006.ogv 6.9 s, 1,024 × 1,024; 4.3 MB
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Extensive-Fusion-of-Mitochondria-in-Spinal-Cord-Motor-Neurons-pone.0038435.s002.ogv 6.8 s, 982 × 287; 209 KB
Extensive-Fusion-of-Mitochondria-in-Spinal-Cord-Motor-Neurons-pone.0038435.s003.ogv 5.9 s, 961 × 207; 134 KB
Extensive-Fusion-of-Mitochondria-in-Spinal-Cord-Motor-Neurons-pone.0038435.s004.ogv 18 s, 1,396 × 336; 678 KB
Extensive-Fusion-of-Mitochondria-in-Spinal-Cord-Motor-Neurons-pone.0038435.s005.ogv 18 s, 1,396 × 336; 923 KB
Extensive-Fusion-of-Mitochondria-in-Spinal-Cord-Motor-Neurons-pone.0038435.s006.ogv 18 s, 1,396 × 336; 1,021 KB
Externalized-decondensed-neutrophil-chromatin-occludes-pancreatic-ducts-and-drivespancreatitis-ncomms10973-s2.ogv 30 s, 854 × 480; 6.83 MB
Externalized-decondensed-neutrophil-chromatin-occludes-pancreatic-ducts-and-drivespancreatitis-ncomms10973-s3.ogv 6.1 s, 1,388 × 1,040; 6.35 MB
Externalized-decondensed-neutrophil-chromatin-occludes-pancreatic-ducts-and-drivespancreatitis-ncomms10973-s4.ogv 15 s, 300 × 300; 696 KB
Externalized-decondensed-neutrophil-chromatin-occludes-pancreatic-ducts-and-drivespancreatitis-ncomms10973-s5.ogv 6.4 s, 694 × 520; 332 KB
Externalized-decondensed-neutrophil-chromatin-occludes-pancreatic-ducts-and-drivespancreatitis-ncomms10973-s6.ogv 7.6 s, 1,920 × 1,080; 3.53 MB
FACS-Based-Isolation-Propagation-and-Characterization-of-Mouse-Embryonic-Cardiomyocytes-Based-on-pone.0082403.s008.ogv 12 s, 320 × 240; 892 KB
Feasibility-Study-of-the-Permeability-and-Uptake-of-Mesoporous-Silica-Nanoparticles-across-the-pone.0160705.s006.ogv 4.4 s, 680 × 680; 1.86 MB
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Flow cytometric gating by side scatter and CD45, without labels.png 1,451 × 839; 365 KB
Flow cytometric gating by side scatter and CD45.png 1,459 × 837; 389 KB
Flow cytometric viability by 7-AAD.png 1,047 × 463; 73 KB
Flow cytometry 3Dhistogram.png 375 × 256; 99 KB
Flow cytometry histogram.png 266 × 268; 4 KB
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Flow cytometry scheme.png 592 × 766; 54 KB
Flow-Based-Cytometric-Analysis-of-Cell-Cycle-via-Simulated-Cell-Populations-pcbi.1000741.s007.ogv 50 s, 768 × 576; 2.67 MB
FlowCAP Results.png 2,000 × 2,000; 361 KB
FlowCitometer.svg 607 × 380; 19 KB
Flowcytometer MoFlo (DAKO cytomation).jpg 320 × 426; 21 KB
FlowCytometrySFLvsSSC.png 300 × 316; 35 KB
Fluorescence Activated Cell Sorting (FACS) principle.tif 1,201 × 1,280; 380 KB
Focalizzazione idrodinamica.png 883 × 750; 21 KB
Functional-classification-of-memory-CD8+-T-cells-by-CX3CR1-expression-ncomms9306-s8.ogv 12 s, 640 × 640; 568 KB
Generation-of-Double-Labeled-Reporter-Cell-Lines-for-Studying-Co-Dynamics-of-Endogenous-Proteins-in-pone.0013524.s009.ogv 16 s, 443 × 427; 4.21 MB
Generation-of-Double-Labeled-Reporter-Cell-Lines-for-Studying-Co-Dynamics-of-Endogenous-Proteins-in-pone.0013524.s010.ogv 16 s, 442 × 430; 3.49 MB
Generation-of-Double-Labeled-Reporter-Cell-Lines-for-Studying-Co-Dynamics-of-Endogenous-Proteins-in-pone.0013524.s011.ogv 16 s, 444 × 427; 958 KB
Generation-of-Double-Labeled-Reporter-Cell-Lines-for-Studying-Co-Dynamics-of-Endogenous-Proteins-in-pone.0013524.s012.ogv 16 s, 440 × 429; 5.78 MB
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Genetic-epigenesis-pbio.1001325.s015.ogv 3.0 s, 608 × 302; 48 KB
Genetic-epigenesis-pbio.1001325.s016.ogv 4.0 s, 400 × 540; 69 KB
Genetic-epigenesis-pbio.1001325.s017.ogv 7.3 s, 1,302 × 626; 187 KB
Genetic-epigenesis-pbio.1001325.s018.ogv 7.3 s, 1,302 × 526; 143 KB
High-density-lipoprotein-contribute-to-G0-G1S-transition-in-Swiss-NIH3T3-fibroblasts-srep17812-s1.ogv 4.0 s, 236 × 159; 1.13 MB
High-density-lipoprotein-contribute-to-G0-G1S-transition-in-Swiss-NIH3T3-fibroblasts-srep17812-s2.ogv 5.3 s, 127 × 141; 253 KB
High-Log-Scale-Expansion-of-Functional-Human-Natural-Killer-Cells-from-Umbilical-Cord-Blood-CD34-pone.0009221.s006.ogv 15 s, 768 × 512; 4.27 MB
HIV-AIDS-Immunstatusdiagnostik Kenia.JPG 4,912 × 3,264; 8.75 MB
Hypoxic-Preconditioning-Improves-Survival-of-Cardiac-Progenitor-Cells-Role-of-Stromal-Cell-Derived-pone.0037948.s001.ogv 36 s, 320 × 240; 5.76 MB
IFlow-A-Graphical-User-Interface-for-Flow-Cytometry-Tools-in-Bioconductor-103839.f1.ogv 3 min 16 s, 808 × 624; 4.18 MB
Improved-Flow-Cytometric-Assessment-Reveals-Distinct-Microvesicle-(Cell-Derived-Microparticle)-pone.0049726.s006.ogv 30 s, 640 × 480; 7.17 MB
In-situ-protein-expression-in-tumour-spheres-development-of-an-immunostaining-protocol-for-confocal-1471-2407-10-106-S2.ogv 2.6 s, 2,164 × 1,024; 755 KB
In-Vitro-Formation-of--Cell-Pseudoislets-Using-Islet-Derived-Endothelial-Cells-pone.0072260.s001.ogv 1.4 s, 568 × 576; 364 KB
In-Vitro-Formation-of--Cell-Pseudoislets-Using-Islet-Derived-Endothelial-Cells-pone.0072260.s002.ogv 2.2 s, 568 × 576; 73 KB
In-Vivo-Approaches-Reveal-a-Key-Role-for-DCs-in-CD4+-T-Cell-Activation-and-Parasite-Clearance-ppat.1004598.s008.ogv 10 s, 513 × 512; 3.45 MB
In-Vivo-Approaches-Reveal-a-Key-Role-for-DCs-in-CD4+-T-Cell-Activation-and-Parasite-Clearance-ppat.1004598.s009.ogv 10 s, 511 × 512; 3.78 MB
In-Vivo-Approaches-Reveal-a-Key-Role-for-DCs-in-CD4+-T-Cell-Activation-and-Parasite-Clearance-ppat.1004598.s010.ogv 17 s, 500 × 445; 3.43 MB
In-Vivo-Approaches-Reveal-a-Key-Role-for-DCs-in-CD4+-T-Cell-Activation-and-Parasite-Clearance-ppat.1004598.s011.ogv 10 s, 406 × 442; 2.2 MB
In-Vivo-Approaches-Reveal-a-Key-Role-for-DCs-in-CD4+-T-Cell-Activation-and-Parasite-Clearance-ppat.1004598.s012.ogv 7.5 s, 800 × 403; 2.87 MB
In-Vivo-Approaches-Reveal-a-Key-Role-for-DCs-in-CD4+-T-Cell-Activation-and-Parasite-Clearance-ppat.1004598.s013.ogv 12 s, 512 × 514; 2.48 MB
In-Vivo-Approaches-Reveal-a-Key-Role-for-DCs-in-CD4+-T-Cell-Activation-and-Parasite-Clearance-ppat.1004598.s014.ogv 8.0 s, 512 × 515; 3.1 MB
In-Vivo-Approaches-Reveal-a-Key-Role-for-DCs-in-CD4+-T-Cell-Activation-and-Parasite-Clearance-ppat.1004598.s015.ogv 10 s, 700 × 700; 5.63 MB
In-Vivo-Approaches-Reveal-a-Key-Role-for-DCs-in-CD4+-T-Cell-Activation-and-Parasite-Clearance-ppat.1004598.s016.ogv 10 s, 395 × 455; 1.94 MB
In-Vivo-Approaches-Reveal-a-Key-Role-for-DCs-in-CD4+-T-Cell-Activation-and-Parasite-Clearance-ppat.1004598.s017.ogv 22 s, 580 × 479; 4.12 MB
In-Vivo-Approaches-Reveal-a-Key-Role-for-DCs-in-CD4+-T-Cell-Activation-and-Parasite-Clearance-ppat.1004598.s018.ogv 7.5 s, 800 × 403; 3.02 MB
In-Vivo-Approaches-Reveal-a-Key-Role-for-DCs-in-CD4+-T-Cell-Activation-and-Parasite-Clearance-ppat.1004598.s019.ogv 10 s, 890 × 638; 3.25 MB
Inhibition-of-mTORC1-Enhances-the-Translation-of-Chikungunya-Proteins-via-the-Activation-of-the-ppat.1005091.s009.ogv 13 s, 1,392 × 1,040; 154 KB
Inhibition-of-mTORC1-Enhances-the-Translation-of-Chikungunya-Proteins-via-the-Activation-of-the-ppat.1005091.s010.ogv 13 s, 1,392 × 1,040; 1.03 MB
Inside BD LSRFortessa cell analyzer.jpg 4,800 × 3,200; 701 KB
Isolation-and-Characterization-of-Renal-Erythropoietin-Producing-Cells-from-Genetically-Produced-pone.0025839.s001.ogv 40 s, 788 × 720; 6.48 MB
Lactobacillus-Decelerates-Cervical-Epithelial-Cell-Cycle-Progression-pone.0063592.s003.ogv 19 s, 694 × 520; 3.96 MB
Lactobacillus-Decelerates-Cervical-Epithelial-Cell-Cycle-Progression-pone.0063592.s004.ogv 19 s, 694 × 520; 7.11 MB
Lactobacillus-Decelerates-Cervical-Epithelial-Cell-Cycle-Progression-pone.0063592.s005.ogv 19 s, 694 × 520; 8.43 MB
Lactobacillus-Decelerates-Cervical-Epithelial-Cell-Cycle-Progression-pone.0063592.s006.ogv 19 s, 694 × 520; 3.83 MB
Large-scale-cell-production-of-stem-cells-for-clinical-application-using-the-automated-cell-1472-6750-13-102-S4.ogv 3 min 21 s, 400 × 300; 15.43 MB
Lentiviral-Vectors-and-Protocols-for-Creation-of-Stable-hESC-Lines-for-Fluorescent-Tracking-and-pone.0005046.s011.ogv 1.3 s, 1,010 × 772; 472 KB
Lentiviral-Vectors-and-Protocols-for-Creation-of-Stable-hESC-Lines-for-Fluorescent-Tracking-and-pone.0005046.s012.ogv 8.5 s, 592 × 216; 243 KB
Lentiviral-Vectors-and-Protocols-for-Creation-of-Stable-hESC-Lines-for-Fluorescent-Tracking-and-pone.0005046.s013.ogv 7.7 s, 450 × 450; 404 KB
Lentiviral-Vectors-and-Protocols-for-Creation-of-Stable-hESC-Lines-for-Fluorescent-Tracking-and-pone.0005046.s014.ogv 5.5 s, 640 × 512; 1,005 KB
Lentiviral-Vectors-and-Protocols-for-Creation-of-Stable-hESC-Lines-for-Fluorescent-Tracking-and-pone.0005046.s015.ogv 2.7 s, 480 × 480; 563 KB
Lineage-Tracking-for-Probing-Heritable-Phenotypes-at-Single-Cell-Resolution-pone.0152395.s007.ogv 25 s, 854 × 480; 789 KB
Lineage-Tracking-for-Probing-Heritable-Phenotypes-at-Single-Cell-Resolution-pone.0152395.s008.ogv 30 s, 750 × 393; 2.72 MB
Live-Imaging-of-Cysteine-Cathepsin-Activity-Reveals-Dynamics-of-Focal-Inflammation-Angiogenesis-and-pone.0002916.s007.ogv 10 s, 512 × 512; 2.73 MB
Long-term-maintenance-of-human-induced-pluripotent-stem-cells-by-automated-cell-culture-system-srep16647-s2.ogv 3 min 31 s, 426 × 240; 4.04 MB
Membrane-Bound-IL-21-Promotes-Sustained-Ex-Vivo-Proliferation-of-Human-Natural-Killer-Cells-pone.0030264.s002.ogv 10 s, 700 × 494; 767 KB
Membrane-Bound-Monomer-of-Staphylococcal-α-Hemolysin-Induces-Caspase-Activation-and-Apoptotic-Cell-pone.0006293.s001.ogv 4.0 s, 393 × 213; 2.45 MB
Membrane-Bound-Monomer-of-Staphylococcal-α-Hemolysin-Induces-Caspase-Activation-and-Apoptotic-Cell-pone.0006293.s002.ogv 4.0 s, 392 × 225; 1.91 MB
Membrane-Bound-Monomer-of-Staphylococcal-α-Hemolysin-Induces-Caspase-Activation-and-Apoptotic-Cell-pone.0006293.s003.ogv 4.0 s, 362 × 389; 6.1 MB
Membrane-Bound-Monomer-of-Staphylococcal-α-Hemolysin-Induces-Caspase-Activation-and-Apoptotic-Cell-pone.0006293.s004.ogv 4.0 s, 355 × 380; 4.73 MB
Membrane-Bound-Monomer-of-Staphylococcal-α-Hemolysin-Induces-Caspase-Activation-and-Apoptotic-Cell-pone.0006293.s005.ogv 6.0 s, 255 × 248; 3.09 MB
Membrane-Bound-Monomer-of-Staphylococcal-α-Hemolysin-Induces-Caspase-Activation-and-Apoptotic-Cell-pone.0006293.s006.ogv 4.0 s, 287 × 401; 4.84 MB

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