Category:Gene regulation

Subcategories

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

Media in category "Gene regulation"

The following 191 files are in this category, out of 191 total.

173 - copia.jpg 672 × 447; 68 KB
3-input AND gate distributed across two cells.png 1,745 × 877; 26 KB
A genetic NOR gate based on tandem promoters and repressors.png 1,745 × 877; 20 KB
A-MAPK-Driven-Feedback-Loop-Suppresses-Rac-Activity-to-Promote-RhoA-Driven-Cancer-Cell-Invasion-pcbi.1004909.s008.ogv 14 s, 500 × 447; 2.28 MB
A-MAPK-Driven-Feedback-Loop-Suppresses-Rac-Activity-to-Promote-RhoA-Driven-Cancer-Cell-Invasion-pcbi.1004909.s009.ogv 2.9 s, 612 × 598; 1.53 MB
A-Novel-Toll-Like-Receptor-(TLR)-Influences-Compatibility-between-the-Gastropod-Biomphalaria-ppat.1005513.s009.ogv 5.6 s, 512 × 256; 17 KB
ABHD5CGI-58-the-Chanarin-Dorfman-Syndrome-Protein-Mobilises-Lipid-Stores-for-Hepatitis-C-Virus-ppat.1005568.s013.ogv 58 s, 960 × 148; 17.24 MB
ABHD5CGI-58-the-Chanarin-Dorfman-Syndrome-Protein-Mobilises-Lipid-Stores-for-Hepatitis-C-Virus-ppat.1005568.s014.ogv 39 s, 960 × 256; 5.35 MB
Bacterial small rna mechanisms.png 1,280 × 720; 110 KB
Bax-Translocation-Mediated-Mitochondrial-Apoptosis-and-Caspase-Dependent-Photosensitizing-Effect-of-pone.0040055.s001.ogv 3.0 s, 688 × 520; 132 KB
Bax-Translocation-Mediated-Mitochondrial-Apoptosis-and-Caspase-Dependent-Photosensitizing-Effect-of-pone.0040055.s002.ogv 3.6 s, 688 × 520; 266 KB
Bax-Translocation-Mediated-Mitochondrial-Apoptosis-and-Caspase-Dependent-Photosensitizing-Effect-of-pone.0040055.s003.ogv 3.6 s, 688 × 520; 343 KB
Benzylglucosinolate-Derived-Isothiocyanate-from-Tropaeolum-majus-Reduces-Gluconeogenic-Gene-and-pone.0162397.s002.ogv 15 s, 787 × 576; 580 KB
Cell-Sorting-and-Noise-Induced-Cell-Plasticity-Coordinate-to-Sharpen-Boundaries-between-Gene-pcbi.1005307.s002.ogv 40 s, 560 × 420; 10.62 MB
Cell-Sorting-and-Noise-Induced-Cell-Plasticity-Coordinate-to-Sharpen-Boundaries-between-Gene-pcbi.1005307.s003.ogv 40 s, 560 × 420; 11.91 MB
Cell-Sorting-and-Noise-Induced-Cell-Plasticity-Coordinate-to-Sharpen-Boundaries-between-Gene-pcbi.1005307.s004.ogv 40 s, 560 × 420; 10.31 MB
Cell-Sorting-and-Noise-Induced-Cell-Plasticity-Coordinate-to-Sharpen-Boundaries-between-Gene-pcbi.1005307.s005.ogv 40 s, 560 × 420; 10.66 MB
Cell-Sorting-and-Noise-Induced-Cell-Plasticity-Coordinate-to-Sharpen-Boundaries-between-Gene-pcbi.1005307.s006.ogv 40 s, 560 × 420; 3.82 MB
Cell-Sorting-and-Noise-Induced-Cell-Plasticity-Coordinate-to-Sharpen-Boundaries-between-Gene-pcbi.1005307.s007.ogv 40 s, 560 × 420; 7.94 MB
Cell-Sorting-and-Noise-Induced-Cell-Plasticity-Coordinate-to-Sharpen-Boundaries-between-Gene-pcbi.1005307.s008.ogv 40 s, 560 × 420; 6.73 MB
Cell-Sorting-and-Noise-Induced-Cell-Plasticity-Coordinate-to-Sharpen-Boundaries-between-Gene-pcbi.1005307.s009.ogv 53 s, 560 × 420; 6.94 MB
Characterization-of-the-Gbx1−−-Mouse-Mutant-A-Requirement-for-Gbx1-in-Normal-Locomotion-and-pone.0056214.s002.ogv 1 min 14 s, 480 × 360; 6.57 MB
Chromatin-Loops-as-Allosteric-Modulators-of-Enhancer-Promoter-Interactions-pcbi.1003867.s009.ogv 50 s, 800 × 600; 26.2 MB
Cis and Trans Gene Regulation.png 640 × 313; 40 KB
Co-regulation-of-Iron-Metabolism-and-Virulence-Associated-Functions-by-Iron-and-XibR-a-Novel-Iron-ppat.1006019.s015.ogv 12 s, 1,392 × 1,040; 9.93 MB
Co-regulation-of-Iron-Metabolism-and-Virulence-Associated-Functions-by-Iron-and-XibR-a-Novel-Iron-ppat.1006019.s016.ogv 12 s, 1,392 × 1,040; 7.59 MB
Co-regulation-of-Iron-Metabolism-and-Virulence-Associated-Functions-by-Iron-and-XibR-a-Novel-Iron-ppat.1006019.s017.ogv 9.9 s, 1,392 × 1,040; 3.27 MB
Computing-Molecular-Devices-in-L.major-through-Transcriptome-Analysis-Structured-Simulation-Approach-pone.0148909.s004.ogv 4.1 s, 1,920 × 1,080; 3.85 MB
Computing-Molecular-Devices-in-L.major-through-Transcriptome-Analysis-Structured-Simulation-Approach-pone.0148909.s005.ogv 13 s, 1,920 × 1,080; 7.81 MB
DNAH6-and-Its-Interactions-with-PCD-Genes-in-Heterotaxy-and-Primary-Ciliary-Dyskinesia-pgen.1005821.s013.ogv 5.3 s, 452 × 198; 397 KB
DNAH6-and-Its-Interactions-with-PCD-Genes-in-Heterotaxy-and-Primary-Ciliary-Dyskinesia-pgen.1005821.s014.ogv 6.4 s, 452 × 588; 493 KB
DNAH6-and-Its-Interactions-with-PCD-Genes-in-Heterotaxy-and-Primary-Ciliary-Dyskinesia-pgen.1005821.s015.ogv 10 s, 316 × 466; 868 KB
DNAH6-and-Its-Interactions-with-PCD-Genes-in-Heterotaxy-and-Primary-Ciliary-Dyskinesia-pgen.1005821.s016.ogv 8.2 s, 546 × 482; 4.24 MB
DNAH6-and-Its-Interactions-with-PCD-Genes-in-Heterotaxy-and-Primary-Ciliary-Dyskinesia-pgen.1005821.s017.ogv 5.8 s, 780 × 416; 499 KB
DNAH6-and-Its-Interactions-with-PCD-Genes-in-Heterotaxy-and-Primary-Ciliary-Dyskinesia-pgen.1005821.s018.ogv 4.6 s, 392 × 220; 145 KB
Drosophila early embryo protein gradients es.svg 353 × 230; 80 KB
Drosophila early embryo protein gradients-ja.png 353 × 230; 17 KB
Drosophila early embryo protein gradients.png 353 × 230; 10 KB
Drosophila early embryo protein gradients.svg 350 × 225; 2 KB
Dynein-Light-Intermediate-Chain-2-Facilitates-the-Metaphase-to-Anaphase-Transition-by-Inactivating-pone.0159646.s002.ogv 7.6 s, 86 × 76; 130 KB
Dynein-Light-Intermediate-Chain-2-Facilitates-the-Metaphase-to-Anaphase-Transition-by-Inactivating-pone.0159646.s003.ogv 6.0 s, 106 × 92; 67 KB
Dynein-Light-Intermediate-Chain-2-Facilitates-the-Metaphase-to-Anaphase-Transition-by-Inactivating-pone.0159646.s004.ogv 11 s, 86 × 84; 124 KB
Dynein-Light-Intermediate-Chain-2-Facilitates-the-Metaphase-to-Anaphase-Transition-by-Inactivating-pone.0159646.s005.ogv 17 s, 84 × 78; 232 KB
EIF2regulation.jpg 323 × 333; 18 KB
Elucidation-of-a-Novel-Pathway-through-Which-HDAC1-Controls-Cardiomyocyte-Differentiation-through-pone.0045046.s001.ogv 14 s, 640 × 480; 3.37 MB
Elucidation-of-a-Novel-Pathway-through-Which-HDAC1-Controls-Cardiomyocyte-Differentiation-through-pone.0045046.s002.ogv 5.7 s, 640 × 480; 1.19 MB
Elucidation-of-a-Novel-Pathway-through-Which-HDAC1-Controls-Cardiomyocyte-Differentiation-through-pone.0045046.s003.ogv 13 s, 640 × 360; 6.39 MB
Elucidation-of-a-Novel-Pathway-through-Which-HDAC1-Controls-Cardiomyocyte-Differentiation-through-pone.0045046.s004.ogv 17 s, 640 × 360; 5.2 MB
Endoplasmic-Reticulum-Localized-Transmembrane-Protein-Dpy19L1-Is-Required-for-Neurite-Outgrowth-pone.0167985.s006.ogv 3.8 s, 640 × 320; 396 KB
Endoplasmic-Reticulum-Localized-Transmembrane-Protein-Dpy19L1-Is-Required-for-Neurite-Outgrowth-pone.0167985.s007.ogv 3.8 s, 480 × 480; 479 KB
Endoplasmic-Reticulum-Localized-Transmembrane-Protein-Dpy19L1-Is-Required-for-Neurite-Outgrowth-pone.0167985.s008.ogv 4.0 s, 994 × 994; 506 KB
Endothelial-Cells-Use-a-Formin-Dependent-Phagocytosis-Like-Process-to-Internalize-the-Bacterium-ppat.1005603.s008.ogv 3.0 s, 454 × 237; 792 KB
Endothelial-Cells-Use-a-Formin-Dependent-Phagocytosis-Like-Process-to-Internalize-the-Bacterium-ppat.1005603.s009.ogv 3.5 s, 1,024 × 1,024; 5.1 MB
Endothelial-Cells-Use-a-Formin-Dependent-Phagocytosis-Like-Process-to-Internalize-the-Bacterium-ppat.1005603.s010.ogv 6.3 s, 1,024 × 1,024; 20.39 MB
Endothelial-Cells-Use-a-Formin-Dependent-Phagocytosis-Like-Process-to-Internalize-the-Bacterium-ppat.1005603.s011.ogv 3.0 s, 159 × 133; 180 KB
Endothelial-Cells-Use-a-Formin-Dependent-Phagocytosis-Like-Process-to-Internalize-the-Bacterium-ppat.1005603.s012.ogv 20 s, 236 × 179; 696 KB
Expression-of-the-ZNT1-Zinc-Transporter-from-the-Metal-Hyperaccumulator-Noccaea-caerulescens-pone.0149750.s010.ogv 13 s, 633 × 512; 2.18 MB
Feedback-Loops-of-the-Mammalian-Circadian-Clock-Constitute-Repressilator-pcbi.1005266.s008.ogv 36 s, 556 × 720; 3.52 MB
Feedback-Loops-of-the-Mammalian-Circadian-Clock-Constitute-Repressilator-pcbi.1005266.s009.ogv 36 s, 556 × 720; 1.34 MB
Floxing Flow Chart.pdf 1,650 × 1,275; 38 KB
Gene expression eukaryote.png 1,549 × 2,561; 469 KB
Gene structure 2 annotated.svg 1,199 × 657; 675 KB
Gene structure eukaryote 2 annotated (hyperlinked).svg 1,190 × 640; 158 KB
Gene structure eukaryote 2 annotated ku.svg 1,190 × 640; 25 KB
Gene structure eukaryote 2 annotated.svg 1,190 × 640; 15 KB
Gene structure prokaryote 2 annotated (hyperlinked).svg 1,190 × 586; 143 KB
Gene structure prokaryote 2 annotated ku.svg 1,190 × 586; 140 KB
Gene structure prokaryote 2 annotated.svg 1,190 × 586; 136 KB
Gene-Expression-Noise-Enhances-Robust-Organization-of-the-Early-Mammalian-Blastocyst-pcbi.1005320.s002.ogv 8.0 s, 560 × 420; 1.38 MB
Gene-Expression-Noise-Enhances-Robust-Organization-of-the-Early-Mammalian-Blastocyst-pcbi.1005320.s003.ogv 8.0 s, 560 × 420; 1.53 MB
Gene-Expression-Noise-Enhances-Robust-Organization-of-the-Early-Mammalian-Blastocyst-pcbi.1005320.s004.ogv 14 s, 233 × 221; 76 KB
Gene-Expression-Noise-Enhances-Robust-Organization-of-the-Early-Mammalian-Blastocyst-pcbi.1005320.s005.ogv 7.1 s, 512 × 512; 1.09 MB
Genetic switch CI.svg 817 × 1,061; 334 KB
Genetic switch Cro.svg 817 × 713; 233 KB
Ginger-Stimulates-Hematopoiesis-via-Bmp-Pathway-in-Zebrafish-pone.0039327.s010.ogv 24 s, 320 × 240; 955 KB
Ginger-Stimulates-Hematopoiesis-via-Bmp-Pathway-in-Zebrafish-pone.0039327.s011.ogv 20 s, 320 × 240; 670 KB
Ginger-Stimulates-Hematopoiesis-via-Bmp-Pathway-in-Zebrafish-pone.0039327.s012.ogv 20 s, 320 × 240; 559 KB
Ginger-Stimulates-Hematopoiesis-via-Bmp-Pathway-in-Zebrafish-pone.0039327.s013.ogv 20 s, 320 × 240; 1.11 MB
Ginger-Stimulates-Hematopoiesis-via-Bmp-Pathway-in-Zebrafish-pone.0039327.s014.ogv 20 s, 320 × 240; 776 KB
Ginger-Stimulates-Hematopoiesis-via-Bmp-Pathway-in-Zebrafish-pone.0039327.s015.ogv 20 s, 320 × 240; 1.86 MB
Ginger-Stimulates-Hematopoiesis-via-Bmp-Pathway-in-Zebrafish-pone.0039327.s016.ogv 20 s, 320 × 240; 649 KB
Ginger-Stimulates-Hematopoiesis-via-Bmp-Pathway-in-Zebrafish-pone.0039327.s017.ogv 20 s, 320 × 240; 476 KB
Ginger-Stimulates-Hematopoiesis-via-Bmp-Pathway-in-Zebrafish-pone.0039327.s018.ogv 20 s, 320 × 240; 923 KB
Ginger-Stimulates-Hematopoiesis-via-Bmp-Pathway-in-Zebrafish-pone.0039327.s019.ogv 20 s, 320 × 240; 691 KB
Heterotetramer of DNMTs 3A2 and 3B3 and its interactions with nucleosome and linker DNA.jpg 2,110 × 1,519; 608 KB
High-Throughput-Analysis-of-NF-B-Dynamics-in-Single-Cells-Reveals-Basal-Nuclear-Localization-of-NF-pone.0090104.s012.ogv 6.0 s, 512 × 512; 518 KB
High-Throughput-Analysis-of-NF-B-Dynamics-in-Single-Cells-Reveals-Basal-Nuclear-Localization-of-NF-pone.0090104.s013.ogv 6.0 s, 512 × 512; 2.76 MB
High-Throughput-Analysis-of-NF-B-Dynamics-in-Single-Cells-Reveals-Basal-Nuclear-Localization-of-NF-pone.0090104.s014.ogv 6.0 s, 512 × 512; 16 KB
High-Throughput-Analysis-of-NF-B-Dynamics-in-Single-Cells-Reveals-Basal-Nuclear-Localization-of-NF-pone.0090104.s015.ogv 6.0 s, 512 × 512; 3.34 MB
High-Throughput-Analysis-of-NF-B-Dynamics-in-Single-Cells-Reveals-Basal-Nuclear-Localization-of-NF-pone.0090104.s016.ogv 21 s, 1,200 × 900; 5.07 MB
High-Throughput-Analysis-of-NF-B-Dynamics-in-Single-Cells-Reveals-Basal-Nuclear-Localization-of-NF-pone.0090104.s017.ogv 16 s, 1,200 × 900; 1.35 MB
High-Throughput-Analysis-of-NF-B-Dynamics-in-Single-Cells-Reveals-Basal-Nuclear-Localization-of-NF-pone.0090104.s018.ogv 8.7 s, 1,200 × 900; 794 KB
High-Throughput-Analysis-of-NF-B-Dynamics-in-Single-Cells-Reveals-Basal-Nuclear-Localization-of-NF-pone.0090104.s019.ogv 8.7 s, 1,200 × 900; 630 KB
High-Throughput-Analysis-of-NF-B-Dynamics-in-Single-Cells-Reveals-Basal-Nuclear-Localization-of-NF-pone.0090104.s020.ogv 8.7 s, 1,200 × 900; 901 KB
High-Throughput-Analysis-of-NF-B-Dynamics-in-Single-Cells-Reveals-Basal-Nuclear-Localization-of-NF-pone.0090104.s021.ogv 8.7 s, 1,200 × 900; 888 KB
In-Vivo-Imaging-of-Hierarchical-Spatiotemporal-Activation-of-Caspase-8-during-Apoptosis-pone.0050218.s007.ogv 4.8 s, 900 × 340; 1.13 MB
In-Vivo-Imaging-of-Hierarchical-Spatiotemporal-Activation-of-Caspase-8-during-Apoptosis-pone.0050218.s008.ogv 27 s, 960 × 540; 1.1 MB
InduciblevsRepressibleSystems.png 1,694 × 914; 158 KB
Isolation-and-Characterization-of-Renal-Erythropoietin-Producing-Cells-from-Genetically-Produced-pone.0025839.s001.ogv 40 s, 788 × 720; 6.48 MB
Lac Flowchart .svg 512 × 384; 150 KB
Lac-operon.jpeg 637 × 326; 26 KB
Lambda decision.svg 598 × 947; 174 KB
Lytic cycle expression.svg 1,480 × 500; 320 KB
Mechanics-of-the-IL2RA-Gene-Activation-Revealed-by-Modeling-and-Atomic-Force-Microscopy-pone.0018811.s011.ogv 4.9 s, 320 × 240; 64 KB
Mechanics-of-the-IL2RA-Gene-Activation-Revealed-by-Modeling-and-Atomic-Force-Microscopy-pone.0018811.s012.ogv 8.3 s, 320 × 240; 83 KB
Mechanics-of-the-IL2RA-Gene-Activation-Revealed-by-Modeling-and-Atomic-Force-Microscopy-pone.0018811.s013.ogv 10 s, 320 × 240; 77 KB
MicroRNAs and Argonaute RNA binding.svg 393 × 607; 506 KB
MicroRNAs-Are-Involved-in-the-Regulation-of-Ovary-Development-in-the-Pathogenic-Blood-Fluke-ppat.1005423.s026.ogv 18 s, 538 × 430; 669 KB
MicroRNAs-Are-Involved-in-the-Regulation-of-Ovary-Development-in-the-Pathogenic-Blood-Fluke-ppat.1005423.s027.ogv 18 s, 538 × 430; 842 KB
MicroRNAs-Are-Involved-in-the-Regulation-of-Ovary-Development-in-the-Pathogenic-Blood-Fluke-ppat.1005423.s028.ogv 18 s, 476 × 422; 703 KB
MicroRNAs-Are-Involved-in-the-Regulation-of-Ovary-Development-in-the-Pathogenic-Blood-Fluke-ppat.1005423.s029.ogv 18 s, 539 × 430; 535 KB
MiR-7-Promotes-Epithelial-Cell-Transformation-by-Targeting-the-Tumor-Suppressor-KLF4-pone.0103987.s010.ogv 0.0 s, 512 × 512; 3.18 MB
MiR-7-Promotes-Epithelial-Cell-Transformation-by-Targeting-the-Tumor-Suppressor-KLF4-pone.0103987.s011.ogv 0.0 s, 512 × 512; 3.47 MB
MiR-7-Promotes-Epithelial-Cell-Transformation-by-Targeting-the-Tumor-Suppressor-KLF4-pone.0103987.s012.ogv 0.0 s, 512 × 512; 3.34 MB
MiR-7-Promotes-Epithelial-Cell-Transformation-by-Targeting-the-Tumor-Suppressor-KLF4-pone.0103987.s013.ogv 13 s, 512 × 512; 6.62 MB
MiR-7-Promotes-Epithelial-Cell-Transformation-by-Targeting-the-Tumor-Suppressor-KLF4-pone.0103987.s014.ogv 0.0 s, 512 × 512; 6.83 MB
Mll5-Is-Required-for-Normal-Spermatogenesis-pone.0027127.s012.ogv 33 s, 320 × 240; 1.8 MB
Mouse-Transgenesis-in-a-Single-Locus-with-Independent-Regulation-for-Multiple-Fluorophores-pone.0040511.s003.ogv 10 s, 640 × 480; 3.08 MB
Mouse-Transgenesis-in-a-Single-Locus-with-Independent-Regulation-for-Multiple-Fluorophores-pone.0040511.s004.ogv 11 s, 640 × 480; 2.44 MB
NcRNAs-central-dogma.svg 837 × 436; 16 KB
Nucleic acid contacts of gene regulatory factors.svg 1,222 × 723; 1.78 MB
Opelac0.jpg 497 × 32; 5 KB
Opelac1.jpg 709 × 295; 61 KB
Opelac2.jpg 709 × 295; 79 KB
Opelac3.jpg 1,417 × 591; 198 KB
Operon presence lactose numeros.svg 725 × 339; 28 KB
Opéron absence lactose numéros.svg 750 × 325; 22 KB
Opéron absence lactose.svg 750 × 325; 20 KB
Opéron presence lactose numéros.svg 750 × 325; 18 KB
Opéron presence lactose.svg 750 × 341; 26 KB
P-Rex1-Cooperates-with-PDGFRβ-to-Drive-Cellular-Migration-in-3D-Microenvironments-pone.0053982.s001.ogv 12 s, 256 × 256; 1.41 MB
P-Rex1-Cooperates-with-PDGFRβ-to-Drive-Cellular-Migration-in-3D-Microenvironments-pone.0053982.s002.ogv 12 s, 256 × 256; 1.61 MB
P-Rex1-Cooperates-with-PDGFRβ-to-Drive-Cellular-Migration-in-3D-Microenvironments-pone.0053982.s003.ogv 12 s, 256 × 256; 1.25 MB
P-Rex1-Cooperates-with-PDGFRβ-to-Drive-Cellular-Migration-in-3D-Microenvironments-pone.0053982.s004.ogv 12 s, 256 × 256; 1.05 MB
P-Rex1-Cooperates-with-PDGFRβ-to-Drive-Cellular-Migration-in-3D-Microenvironments-pone.0053982.s005.ogv 16 s, 256 × 256; 2.12 MB
P-Rex1-Cooperates-with-PDGFRβ-to-Drive-Cellular-Migration-in-3D-Microenvironments-pone.0053982.s006.ogv 16 s, 256 × 256; 1.62 MB
P-Rex1-Cooperates-with-PDGFRβ-to-Drive-Cellular-Migration-in-3D-Microenvironments-pone.0053982.s007.ogv 16 s, 256 × 256; 1.04 MB
Pairing-of-Homologous-Regions-in-the-Mouse-Genome-Is-Associated-with-Transcription-but-Not-pone.0038983.s011.ogv 20 s, 2,066 × 1,117; 1,000 KB
Poison-antidote petit.png 183 × 108; 2 KB
Predicting-Ancestral-Segmentation-Phenotypes-from-Drosophila-to-Anopheles-Using-In-Silico-Evolution-pgen.1006052.s001.ogv 21 s, 812 × 612; 691 KB
Predicting-Ancestral-Segmentation-Phenotypes-from-Drosophila-to-Anopheles-Using-In-Silico-Evolution-pgen.1006052.s002.ogv 21 s, 812 × 612; 499 KB
Predicting-Ancestral-Segmentation-Phenotypes-from-Drosophila-to-Anopheles-Using-In-Silico-Evolution-pgen.1006052.s003.ogv 8.9 s, 812 × 612; 1.38 MB
Predicting-Ancestral-Segmentation-Phenotypes-from-Drosophila-to-Anopheles-Using-In-Silico-Evolution-pgen.1006052.s004.ogv 9.0 s, 812 × 612; 1.28 MB
Rabies-Virus-Infection-Induces-the-Formation-of-Stress-Granules-Closely-Connected-to-the-Viral-ppat.1005942.s001.ogv 17 s, 1,352 × 694; 2.48 MB
Rabies-Virus-Infection-Induces-the-Formation-of-Stress-Granules-Closely-Connected-to-the-Viral-ppat.1005942.s002.ogv 9.9 s, 1,352 × 694; 1,019 KB
Rapid-Transcriptional-Pulsing-Dynamics-of-High-Expressing-Retroviral-Transgenes-in-Embryonic-Stem-pone.0037130.s005.ogv 5.3 s, 294 × 290; 102 KB
Rapid-Transcriptional-Pulsing-Dynamics-of-High-Expressing-Retroviral-Transgenes-in-Embryonic-Stem-pone.0037130.s006.ogv 20 s, 230 × 209; 178 KB
Rapid-Transcriptional-Pulsing-Dynamics-of-High-Expressing-Retroviral-Transgenes-in-Embryonic-Stem-pone.0037130.s007.ogv 1 min 7 s, 206 × 264; 809 KB
Rapid-Transcriptional-Pulsing-Dynamics-of-High-Expressing-Retroviral-Transgenes-in-Embryonic-Stem-pone.0037130.s008.ogv 30 s, 302 × 310; 453 KB
Regulation-of-C.-elegans-Neuronal-Differentiation-by-the-ZEB-Family-Factor-ZAG-1-and-the-NK-2-pone.0113893.s001.ogv 11 s, 312 × 368; 93 KB
Regulation-of-C.-elegans-Neuronal-Differentiation-by-the-ZEB-Family-Factor-ZAG-1-and-the-NK-2-pone.0113893.s002.ogv 20 s, 418 × 316; 202 KB
Regulation-of-C.-elegans-Neuronal-Differentiation-by-the-ZEB-Family-Factor-ZAG-1-and-the-NK-2-pone.0113893.s003.ogv 7.0 s, 454 × 214; 106 KB
Regulation-of-C.-elegans-Neuronal-Differentiation-by-the-ZEB-Family-Factor-ZAG-1-and-the-NK-2-pone.0113893.s006.ogv 10 s, 340 × 308; 424 KB
Representation of a Genetic Regulatory Circuit.png 1,162 × 598; 35 KB
RNA binding proteins RNA binding sites.svg 393 × 643; 711 KB
Secondary metabolite regulation by LaeA.jpg 960 × 720; 33 KB
Sequence-Conservation-and-Sexually-Dimorphic-Expression-of-the-Ftz-F1-Gene-in-the-Crustacean-pone.0154636.s004.ogv 21 s, 1,857 × 1,245; 5.37 MB
SREP pathway tr.PNG 2,999 × 2,249; 1.07 MB
Superposition between promoter distributions.png 1,200 × 1,838; 493 KB
TandemPromoter-variant 1.png 1,745 × 877; 16 KB
TandemPromoter-variant 2.png 1,745 × 877; 16 KB
The genetic AND gate based on HrpR and HrpS.png 1,745 × 877; 17 KB
The LacI protein regulating its promoter.png 1,745 × 877; 16 KB
The-AP-2-Transcription-Factor-APTF-2-Is-Required-for-Neuroblast-and-Epidermal-Morphogenesis-in-pgen.1006048.s025.ogv 45 s, 462 × 233; 6.41 MB
The-C-Terminal-SynMuvDdDUF926-Domain-Regulates-the-Function-of-the-N-Terminal-Domain-of-DdNKAP-pone.0168617.s011.ogv 15 s, 1,360 × 1,024; 14.63 MB
The-C-Terminal-SynMuvDdDUF926-Domain-Regulates-the-Function-of-the-N-Terminal-Domain-of-DdNKAP-pone.0168617.s012.ogv 13 s, 1,360 × 1,024; 10.08 MB
The-C-Terminal-SynMuvDdDUF926-Domain-Regulates-the-Function-of-the-N-Terminal-Domain-of-DdNKAP-pone.0168617.s013.ogv 16 s, 1,360 × 1,024; 25.22 MB
The-Caenorhabditis-elegans-Synthetic-Multivulva-Genes-Prevent-Ras-Pathway-Activation-by-Tightly-pgen.1002418.s003.ogv 5.0 s, 2,871 × 1,636; 443 KB
The-Caenorhabditis-elegans-Synthetic-Multivulva-Genes-Prevent-Ras-Pathway-Activation-by-Tightly-pgen.1002418.s004.ogv 4.0 s, 3,371 × 1,498; 1.46 MB
The-Flavonoid-Isoquercitrin-Promotes-Neurite-Elongation-by-Reducing-RhoA-Activity-pone.0049979.s006.ogv 11 s, 1,280 × 720; 7.61 MB
The-Flavonoid-Isoquercitrin-Promotes-Neurite-Elongation-by-Reducing-RhoA-Activity-pone.0049979.s008.ogv 40 s, 1,280 × 720; 9.44 MB
The-Flavonoid-Isoquercitrin-Promotes-Neurite-Elongation-by-Reducing-RhoA-Activity-pone.0049979.s014.ogv 27 s, 938 × 528; 6.07 MB
The-Integrated-Role-of-Wntβ-Catenin-N-Glycosylation-and-E-Cadherin-Mediated-Adhesion-in-Network-pcbi.1005007.s008.ogv 4.3 s, 512 × 512; 1.81 MB
The-Integrated-Role-of-Wntβ-Catenin-N-Glycosylation-and-E-Cadherin-Mediated-Adhesion-in-Network-pcbi.1005007.s009.ogv 4.3 s, 512 × 512; 1.72 MB
The-Integrated-Role-of-Wntβ-Catenin-N-Glycosylation-and-E-Cadherin-Mediated-Adhesion-in-Network-pcbi.1005007.s010.ogv 4.3 s, 512 × 512; 1.56 MB
The-Integrated-Role-of-Wntβ-Catenin-N-Glycosylation-and-E-Cadherin-Mediated-Adhesion-in-Network-pcbi.1005007.s011.ogv 4.3 s, 512 × 512; 1.5 MB
The-Subcellular-Dynamics-of-the-Gs-Linked-Receptor-GPR3-Contribute-to-the-Local-Activation-of-PKA-pone.0147466.s004.ogv 3.2 s, 320 × 45; 33 KB
The-Zinc-Finger-Protein-SOP1-Is-Required-for-a-Subset-of-the-Nuclear-Exosome-Functions-in-pgen.1005817.s007.ogv 8.0 s, 238 × 96; 72 KB
The-Zinc-Finger-Protein-SOP1-Is-Required-for-a-Subset-of-the-Nuclear-Exosome-Functions-in-pgen.1005817.s008.ogv 6.7 s, 1,536 × 489; 1.17 MB
Transcription factors DNA binding sites.svg 392 × 645; 603 KB
Transcription-Factor-Mediated-DNA-Looping-Probed-by-High-Resolution-Single-Molecule-Imaging-in-Live-pbio.1001591.s007.ogv 5.0 s, 232 × 208; 168 KB
Transcription-Factor-Mediated-DNA-Looping-Probed-by-High-Resolution-Single-Molecule-Imaging-in-Live-pbio.1001591.s008.ogv 5.0 s, 188 × 174; 120 KB
Transcription-Factor-Mediated-DNA-Looping-Probed-by-High-Resolution-Single-Molecule-Imaging-in-Live-pbio.1001591.s009.ogv 6.5 s, 130 × 196; 153 KB
Transcription-Factor-Mediated-DNA-Looping-Probed-by-High-Resolution-Single-Molecule-Imaging-in-Live-pbio.1001591.s010.ogv 6.0 s, 136 × 156; 159 KB
Transcription-Factor-Mediated-DNA-Looping-Probed-by-High-Resolution-Single-Molecule-Imaging-in-Live-pbio.1001591.s011.ogv 6.5 s, 78 × 144; 73 KB
Transcription-Factor-Mediated-DNA-Looping-Probed-by-High-Resolution-Single-Molecule-Imaging-in-Live-pbio.1001591.s012.ogv 6.0 s, 214 × 244; 180 KB
Transcription-Factors-Expressed-in-Mouse-Cochlear-Inner-and-Outer-Hair-Cells-pone.0151291.s001.ogv 11 s, 640 × 480; 137 KB
TRIM32-Cytoplasmic-Body-Formation-Is-an-ATP-Consuming-Process-Stimulated-by-HSP70-in-Cells-pone.0169436.s006.ogv 18 s, 528 × 528; 132 KB
TRIM32-Cytoplasmic-Body-Formation-Is-an-ATP-Consuming-Process-Stimulated-by-HSP70-in-Cells-pone.0169436.s007.ogv 18 s, 528 × 528; 240 KB
WagnerModel.png 716 × 368; 41 KB
Ülevaade lapA ja lapF regulatsioonist biofilmi moodustumisel.jpg 1,758 × 816; 287 KB

Category:Gene regulation

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