Category:Synthetic biology

Subcategories

This category has the following 11 subcategories, out of 11 total.

Media in category "Synthetic biology"

The following 144 files are in this category, out of 144 total.

• 
  2017-06-14 - Cowell SB5 SynbioSlam-optimized.png 2,887 × 2,165; 364 KB
  
• A-library-of-mammalian-effector-modules-for-synthetic-morphology-13036 2014 158 MOESM1 ESM.ogv 20 s, 720 × 450; 9.42 MB
  
• A-library-of-mammalian-effector-modules-for-synthetic-morphology-13036 2014 158 MOESM2 ESM.ogv 10 s, 720 × 450; 4.55 MB
  
• A-library-of-mammalian-effector-modules-for-synthetic-morphology-13036 2014 158 MOESM3 ESM.ogv 10 s, 720 × 450; 4.08 MB
  
• A-library-of-mammalian-effector-modules-for-synthetic-morphology-13036 2014 158 MOESM4 ESM.ogv 10 s, 720 × 450; 4.22 MB
  
• A-library-of-mammalian-effector-modules-for-synthetic-morphology-13036 2014 158 MOESM5 ESM.ogv 10 s, 720 × 450; 3.38 MB
  
• Adaptive-Imaging-Cytometry-to-Estimate-Parameters-of-Gene-Networks-Models-in-Systems-and-Synthetic-pone.0107087.s003.ogv 13 s, 600 × 452; 508 KB
  
• Adaptive-Imaging-Cytometry-to-Estimate-Parameters-of-Gene-Networks-Models-in-Systems-and-Synthetic-pone.0107087.s004.ogv 52 s, 600 × 451; 1.1 MB
  
• 
  Amy Karle with her artwork The Heart of Evolution?, 2019.jpg 720 × 720; 406 KB
  
• 
  An iGEM page of DNA (3331872817).jpg 2,870 × 3,515; 4.14 MB
  
• Application-of-a-Genetically-Encoded-Biosensor-for-Live-Cell-Imaging-of-L-Valine-Production-in-pone.0085731.s002.ogv 30 s, 544 × 720; 1.67 MB
  
• 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
  
• Application-of-a-Genetically-Encoded-Biosensor-for-Live-Cell-Imaging-of-L-Valine-Production-in-pone.0085731.s005.ogv 29 s, 720 × 720; 1.26 MB
  
• 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
  
• 
  Artificial saliva.jpg 1,500 × 1,981; 449 KB
  
• 
  Artwork by Amy Karle in bio atelier at Mori Art Museum.jpg 576 × 346; 79 KB
  
• 
  Artwork in bio atelier at Mori Art Museum 2019-2020.jpg 849 × 432; 166 KB
  
• 
  Automated bacterial colony picking.JPG 6,000 × 4,000; 3.34 MB
  
• 
  BASIC Parts Preparation.png 2,647 × 1,768; 159 KB
  
• 
  Bioart in bio atelier at Mori Art Museum (artwork by Amy Karle).jpg 960 × 644; 177 KB
  
• 
  BioBricks assembly.png 1,597 × 1,395; 50 KB
  
• BSim-An-Agent-Based-Tool-for-Modeling-Bacterial-Populations-in-Systems-and-Synthetic-Biology-pone.0042790.s011.ogv 1 min 17 s, 800 × 600; 1.38 MB
  
• BSim-An-Agent-Based-Tool-for-Modeling-Bacterial-Populations-in-Systems-and-Synthetic-Biology-pone.0042790.s012.ogv 20 s, 720 × 540; 8.87 MB
  
• BSim-An-Agent-Based-Tool-for-Modeling-Bacterial-Populations-in-Systems-and-Synthetic-Biology-pone.0042790.s013.ogv 23 s, 720 × 540; 5.78 MB
  
• 
  CRISPR-Display applications.png 3,307 × 2,348; 390 KB
  
• 
  D5SICS-skeletal.png 801 × 1,109; 45 KB
  
• 
  D5SICS.png 490 × 257; 57 KB
  
• 
  Design, construction, and functional characterization of a tRNA neochromosome in yeast (graphical abstract).jpg 996 × 996; 106 KB
  
• 
  DNaM-skeletal.png 890 × 969; 45 KB
  
• 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
  
• Female-Specific-Flightless-(fsRIDL)-Phenotype-for-Control-of-Aedes-albopictus-pntd.0001724.s003.ogv 11 s, 640 × 480; 801 KB
  
• Female-Specific-Flightless-(fsRIDL)-Phenotype-for-Control-of-Aedes-albopictus-pntd.0001724.s004.ogv 12 s, 640 × 480; 856 KB
  
• 
  Four Part BASIC Assembly Construct.png 2,070 × 1,523; 47 KB
  
• 
  Gateway BP Clonase.png 2,193 × 1,594; 43 KB
  
• 
  Gateway LR Clonase.png 2,469 × 1,719; 85 KB
  
• 
  Golden Braid assembly.png 4,653 × 3,875; 411 KB
  
• 
  Golden Gate Assembly.png 4,495 × 2,612; 450 KB
  
• 
  How-Many-Species-Are-There-on-Earth-and-in-the-Ocean-pbio.1001127.g001.jpg 656 × 371; 107 KB
  
• 
  How-Many-Species-Are-There-on-Earth-and-in-the-Ocean-pbio.1001127.g002.jpg 490 × 468; 86 KB
  
• 
  How-Many-Species-Are-There-on-Earth-and-in-the-Ocean-pbio.1001127.g003.jpg 656 × 667; 170 KB
  
• 
  Immunogenetic-Mechanisms-Driving-Norovirus-GII.4-Antigenic-Variation-ppat.1002705.g001.jpg 482 × 355; 68 KB
  
• 
  Immunogenetic-Mechanisms-Driving-Norovirus-GII.4-Antigenic-Variation-ppat.1002705.g002.jpg 473 × 566; 66 KB
  
• 
  Immunogenetic-Mechanisms-Driving-Norovirus-GII.4-Antigenic-Variation-ppat.1002705.g003.jpg 474 × 551; 53 KB
  
• 
  Immunogenetic-Mechanisms-Driving-Norovirus-GII.4-Antigenic-Variation-ppat.1002705.g004.jpg 487 × 618; 58 KB
  
• 
  Immunogenetic-Mechanisms-Driving-Norovirus-GII.4-Antigenic-Variation-ppat.1002705.g005.jpg 462 × 378; 60 KB
  
• 
  Immunogenetic-Mechanisms-Driving-Norovirus-GII.4-Antigenic-Variation-ppat.1002705.g006.jpg 638 × 465; 79 KB
  
• 
  Immunogenetic-Mechanisms-Driving-Norovirus-GII.4-Antigenic-Variation-ppat.1002705.g007.jpg 646 × 491; 78 KB
  
• 
  Immunogenetic-Mechanisms-Driving-Norovirus-GII.4-Antigenic-Variation-ppat.1002705.g008.jpg 484 × 560; 73 KB
  
• 
  Immunogenetic-Mechanisms-Driving-Norovirus-GII.4-Antigenic-Variation-ppat.1002705.g009.jpg 491 × 504; 114 KB
  
• 
  Immunogenetic-Mechanisms-Driving-Norovirus-GII.4-Antigenic-Variation-ppat.1002705.g010.jpg 465 × 399; 72 KB
  
• 
  Immunogenetic-Mechanisms-Driving-Norovirus-GII.4-Antigenic-Variation-ppat.1002705.g011.jpg 643 × 488; 82 KB
  
• 
  Immunogenetic-Mechanisms-Driving-Norovirus-GII.4-Antigenic-Variation-ppat.1002705.g012.jpg 605 × 696; 84 KB
  
• 
  Immunogenetic-Mechanisms-Driving-Norovirus-GII.4-Antigenic-Variation-ppat.1002705.g013.jpg 481 × 595; 52 KB
  
• 
  Immunogenetic-Mechanisms-Driving-Norovirus-GII.4-Antigenic-Variation-ppat.1002705.g014.jpg 648 × 203; 60 KB
  
• 
  Immunogenetic-Mechanisms-Driving-Norovirus-GII.4-Antigenic-Variation-ppat.1002705.s002.tif 2,049 × 1,704; 399 KB
  
• In-Silico-Patterning-of-Vascular-Mesenchymal-Cells-in-Three-Dimensions-pone.0020182.s001.ogv 15 s, 550 × 633; 1.46 MB
  
• In-Silico-Patterning-of-Vascular-Mesenchymal-Cells-in-Three-Dimensions-pone.0020182.s002.ogv 15 s, 550 × 633; 1.89 MB
  
• In-Silico-Patterning-of-Vascular-Mesenchymal-Cells-in-Three-Dimensions-pone.0020182.s003.ogv 14 s, 550 × 631; 669 KB
  
• In-Vivo-Real-Time-Control-of-Protein-Expression-from-Endogenous-and-Synthetic-Gene-Networks-pcbi.1003625.s027.ogv 33 s, 768 × 576; 10.25 MB
  
• In-Vivo-Real-Time-Control-of-Protein-Expression-from-Endogenous-and-Synthetic-Gene-Networks-pcbi.1003625.s028.ogv 27 s, 1,120 × 840; 8.68 MB
  
• In-Vivo-Transcription-Kinetics-of-a-Synthetic-Gene-Uninvolved-in-Stress-Response-Pathways-in-pone.0109005.s003.ogv 39 s, 96 × 96; 81 KB
  
• Induced-Mutations-in-Yeast-Cell-Populations-Adapting-to-an-Unforeseen-Challenge-pone.0111133.s003.ogv 1 min 20 s, 750 × 750; 6.78 MB
  
• 
  Intestinal transgene delivery with native E. coli chassis allows persistent physiological changes.jpg 996 × 996; 219 KB
  
• Light-Mediated-Kinetic-Control-Reveals-the-Temporal-Effect-of-the-RafMEKERK-Pathway-in-PC12-Cell-pone.0092917.s013.ogv 25 s, 280 × 200; 565 KB
  
• Light-Mediated-Kinetic-Control-Reveals-the-Temporal-Effect-of-the-RafMEKERK-Pathway-in-PC12-Cell-pone.0092917.s014.ogv 14 s, 322 × 252; 959 KB
  
• Light-Mediated-Kinetic-Control-Reveals-the-Temporal-Effect-of-the-RafMEKERK-Pathway-in-PC12-Cell-pone.0092917.s015.ogv 25 s, 309 × 387; 459 KB
  
• Light-Mediated-Kinetic-Control-Reveals-the-Temporal-Effect-of-the-RafMEKERK-Pathway-in-PC12-Cell-pone.0092917.s016.ogv 12 s, 520 × 364; 1.62 MB
  
• Light-Mediated-Kinetic-Control-Reveals-the-Temporal-Effect-of-the-RafMEKERK-Pathway-in-PC12-Cell-pone.0092917.s017.ogv 24 s, 178 × 375; 131 KB
  
• Linear-Control-Theory-for-Gene-Network-Modeling-pone.0012785.s002.ogv 1 min 7 s, 640 × 422; 1.35 MB
  
• 
  Linking-Human-Diseases-to-Animal-Models-Using-Ontology-Based-Phenotype-Annotation-pbio.1000247.g001.jpg 477 × 316; 107 KB
  
• 
  Linking-Human-Diseases-to-Animal-Models-Using-Ontology-Based-Phenotype-Annotation-pbio.1000247.g002.jpg 505 × 677; 102 KB
  
• 
  Linking-Human-Diseases-to-Animal-Models-Using-Ontology-Based-Phenotype-Annotation-pbio.1000247.g003.jpg 661 × 409; 118 KB
  
• 
  Linking-Human-Diseases-to-Animal-Models-Using-Ontology-Based-Phenotype-Annotation-pbio.1000247.g004.jpg 559 × 696; 177 KB
  
• 
  Linking-Human-Diseases-to-Animal-Models-Using-Ontology-Based-Phenotype-Annotation-pbio.1000247.g005.jpg 469 × 1,099; 138 KB
  
• 
  Linking-Human-Diseases-to-Animal-Models-Using-Ontology-Based-Phenotype-Annotation-pbio.1000247.g006.jpg 496 × 825; 132 KB
  
• 
  Linking-Human-Diseases-to-Animal-Models-Using-Ontology-Based-Phenotype-Annotation-pbio.1000247.g007.jpg 496 × 256; 50 KB
  
• 
  Long Overlap Assembly.png 2,225 × 1,782; 132 KB
  
• Mimicking-Insect-Communication-Release-and-Detection-of-Pheromone-Biosynthesized-by-an-Alcohol-pone.0047751.s005.ogv 23 s, 763 × 576; 5.74 MB
  
• 
  MoClo assembly.png 3,263 × 2,582; 139 KB
  
• 
  Msb4100073-fig-0001-m.jpg 524 × 494; 140 KB
  
• Multicellular-Computing-Using-Conjugation-for-Wiring-pone.0065986.s010.ogv 22 s, 640 × 480; 7.46 MB
  
• Multicellular-Computing-Using-Conjugation-for-Wiring-pone.0065986.s011.ogv 22 s, 640 × 480; 3.51 MB
  
• 
  Multisite Gateway Assembly.png 3,708 × 1,731; 83 KB
  
• 
  Nano tape used to hang household items.jpg 3,000 × 3,000; 4.33 MB
  
• 
  Nano tape.jpg 4,000 × 3,000; 3.17 MB
  
• 
  Nediljko Budisa 2012.jpg 1,805 × 1,848; 829 KB
  
• Optimal-Experimental-Design-for-Parameter-Estimation-of-a-Cell-Signaling-Model-pcbi.1000558.s003.ogv 13 s, 434 × 344; 531 KB
  
• Optimal-Experimental-Design-for-Parameter-Estimation-of-a-Cell-Signaling-Model-pcbi.1000558.s004.ogv 13 s, 434 × 344; 627 KB
  
• Optimal-Experimental-Design-for-Parameter-Estimation-of-a-Cell-Signaling-Model-pcbi.1000558.s005.ogv 13 s, 474 × 376; 851 KB
  
• Optogenetic-Control-of-PIP3-PIP3-Is-Sufficient-to-Induce-the-Actin-Based-Active-Part-of-Growth-pone.0070861.s003.ogv 8.1 s, 150 × 146; 582 KB
  
• Optogenetic-Control-of-PIP3-PIP3-Is-Sufficient-to-Induce-the-Actin-Based-Active-Part-of-Growth-pone.0070861.s004.ogv 8.5 s, 320 × 142; 625 KB
  
• Optogenetic-Control-of-PIP3-PIP3-Is-Sufficient-to-Induce-the-Actin-Based-Active-Part-of-Growth-pone.0070861.s005.ogv 7.0 s, 320 × 172; 84 KB
  
• Optogenetic-Control-of-PIP3-PIP3-Is-Sufficient-to-Induce-the-Actin-Based-Active-Part-of-Growth-pone.0070861.s006.ogv 9.1 s, 300 × 218; 1.3 MB
  
• Optogenetic-Control-of-PIP3-PIP3-Is-Sufficient-to-Induce-the-Actin-Based-Active-Part-of-Growth-pone.0070861.s007.ogv 10 s, 222 × 240; 331 KB
  
• Optogenetic-Control-of-PIP3-PIP3-Is-Sufficient-to-Induce-the-Actin-Based-Active-Part-of-Growth-pone.0070861.s008.ogv 9.0 s, 450 × 320; 1.1 MB
  
• Optogenetic-Control-of-PIP3-PIP3-Is-Sufficient-to-Induce-the-Actin-Based-Active-Part-of-Growth-pone.0070861.s009.ogv 8.0 s, 320 × 260; 484 KB
  
• Optogenetic-Control-of-PIP3-PIP3-Is-Sufficient-to-Induce-the-Actin-Based-Active-Part-of-Growth-pone.0070861.s010.ogv 8.7 s, 222 × 240; 370 KB
  
• Optogenetic-Control-of-PIP3-PIP3-Is-Sufficient-to-Induce-the-Actin-Based-Active-Part-of-Growth-pone.0070861.s011.ogv 6.1 s, 252 × 304; 444 KB
  
• 
  Overlap assembly using the MODAL format.png 4,923 × 1,392; 196 KB
  
• 
  Overview of DNA synthesis screening components.jpg 3,035 × 1,063; 374 KB
  
• 
  Part icon cds.svg 48 × 48; 7 KB
  
• 
  Part icon cell.svg 48 × 48; 23 KB
  
• 
  Part icon generator.svg 48 × 48; 15 KB
  
• 
  Part icon protein domain.svg 48 × 48; 8 KB
  
• 
  Part icon rbs.svg 48 × 48; 18 KB
  
• 
  Part icon regulatory.svg 48 × 48; 17 KB
  
• 
  Part icon terminator.svg 48 × 48; 15 KB
  
• 
  Part icon translational unit.svg 48 × 48; 21 KB
  
• Plant-Sterol-Metabolism.-7-Sterol-C5-Desaturase-(STE1DWARF7)-57-Sterol-7-Reductase-(DWARF5)-and-24-pone.0056429.s007.ogv 16 s, 512 × 512; 821 KB
  
• Quantifying-and-Tracing-Information-Cascades-in-Swarms-pone.0040084.s001.ogv 27 s, 600 × 716; 7.98 MB
  
• Quantifying-and-Tracing-Information-Cascades-in-Swarms-pone.0040084.s002.ogv 27 s, 600 × 750; 5.3 MB
  
• Quantifying-and-Tracing-Information-Cascades-in-Swarms-pone.0040084.s003.ogv 1 min 7 s, 600 × 750; 8.04 MB
  
• Quantifying-and-Tracing-Information-Cascades-in-Swarms-pone.0040084.s004.ogv 1 min 7 s, 600 × 750; 4.96 MB
  
• 
  Repressilator.png 548 × 224; 42 KB
  
• Some-Causes-of-the-Variable-Shape-of-Flocks-of-Birds-pone.0022479.s004.ogv 9.4 s, 640 × 480; 4.42 MB
  
• Some-Causes-of-the-Variable-Shape-of-Flocks-of-Birds-pone.0022479.s005.ogv 13 s, 640 × 480; 9 MB
  
• Some-Causes-of-the-Variable-Shape-of-Flocks-of-Birds-pone.0022479.s006.ogv 23 s, 320 × 216; 4.69 MB
  
• Some-Causes-of-the-Variable-Shape-of-Flocks-of-Birds-pone.0022479.s007.ogv 14 s, 640 × 480; 1.02 MB
  
• Some-Causes-of-the-Variable-Shape-of-Flocks-of-Birds-pone.0022479.s008.ogv 6.3 s, 640 × 480; 2.47 MB
  
• Some-Causes-of-the-Variable-Shape-of-Flocks-of-Birds-pone.0022479.s009.ogv 7.1 s, 624 × 416; 6.42 MB
  
• Some-Causes-of-the-Variable-Shape-of-Flocks-of-Birds-pone.0022479.s010.ogv 29 s, 320 × 240; 1.92 MB
  
• Spatial-Simulations-of-Myxobacterial-Development-pcbi.1000686.s005.ogv 1 min 27 s, 340 × 240; 3.11 MB
  
• 
  Syn3 genome.svg 340 × 203; 211 KB
  
• 
  SynBioCirc-AndLogicGate.jpg 1,065 × 236; 111 KB
  
• 
  Synthetic Biology Costa Rican Beach.jpg 1,200 × 1,600; 705 KB
  
• 
  Synthetic Biology Enabled Microbiome Engineering in Sustainable Agriculture.jpg 2,502 × 2,254; 571 KB
  
• 
  Synthetic Biology Open Language (SBOL) standard visual symbols.png 1,026 × 940; 91 KB
  
• 
  Synthetic Biology Open Language (SBOL) standard visual symbols.svg 600 × 460; 6 KB
  
• 
  Synthetic Biology Research at NASA Ames.jpg 4,416 × 3,312; 4.2 MB
  
• 
  Synthetic-biology-four-step-engineering-workflow.jpg 600 × 256; 13 KB
  
• Synthetic-Protocells-Interact-with-Viral-Nanomachinery-and-Inactivate-Pathogenic-Human-Virus-pone.0016874.s002.ogv 37 s, 320 × 320; 94 KB
  
• Temporal-control-of-self-organized-pattern-formation-without-morphogen-gradients-in-bacteria-msb201355-s3.ogv 7.9 s, 320 × 240; 489 KB
  
• 
  Terence2020.png 3,340 × 2,250; 12.27 MB
  
• 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
  
• Understanding-the-Melanocyte-Distribution-in-Human-Epidermis-An-Agent-Based-Computational-Model-pone.0040377.s001.ogv 1 min 0 s, 640 × 480; 12.47 MB
  
• Understanding-the-Melanocyte-Distribution-in-Human-Epidermis-An-Agent-Based-Computational-Model-pone.0040377.s002.ogv 1 min 0 s, 640 × 480; 9.77 MB
  
• Understanding-the-Melanocyte-Distribution-in-Human-Epidermis-An-Agent-Based-Computational-Model-pone.0040377.s003.ogv 1 min 0 s, 640 × 480; 9.29 MB