Category:Synthetic biology

하위 분류

다음은 이 분류에 속하는 하위 분류 11개 가운데 11개입니다.

"Synthetic biology" 분류에 속하는 미디어

다음은 이 분류에 속하는 파일 144개 가운데 144개입니다.

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  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
  
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  Amy Karle with her artwork The Heart of Evolution?, 2019.jpg 720 × 720; 406 KB
  
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  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
  
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  Artificial saliva.jpg 1,500 × 1,981; 449 KB
  
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  Artwork by Amy Karle in bio atelier at Mori Art Museum.jpg 576 × 346; 79 KB
  
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  Artwork in bio atelier at Mori Art Museum 2019-2020.jpg 849 × 432; 166 KB
  
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  Automated bacterial colony picking.JPG 6,000 × 4,000; 3.34 MB
  
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  BASIC Parts Preparation.png 2,647 × 1,768; 159 KB
  
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  Bioart in bio atelier at Mori Art Museum (artwork by Amy Karle).jpg 960 × 644; 177 KB
  
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  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
  
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  CRISPR-Display applications.png 3,307 × 2,348; 390 KB
  
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  D5SICS-skeletal.png 801 × 1,109; 45 KB
  
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  D5SICS.png 490 × 257; 57 KB
  
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  Design, construction, and functional characterization of a tRNA neochromosome in yeast (graphical abstract).jpg 996 × 996; 106 KB
  
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  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
  
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  Four Part BASIC Assembly Construct.png 2,070 × 1,523; 47 KB
  
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  Gateway BP Clonase.png 2,193 × 1,594; 43 KB
  
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  Gateway LR Clonase.png 2,469 × 1,719; 85 KB
  
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  Golden Braid assembly.png 4,653 × 3,875; 411 KB
  
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  Golden Gate Assembly.png 4,495 × 2,612; 450 KB
  
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  How-Many-Species-Are-There-on-Earth-and-in-the-Ocean-pbio.1001127.g001.jpg 656 × 371; 107 KB
  
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  How-Many-Species-Are-There-on-Earth-and-in-the-Ocean-pbio.1001127.g002.jpg 490 × 468; 86 KB
  
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  How-Many-Species-Are-There-on-Earth-and-in-the-Ocean-pbio.1001127.g003.jpg 656 × 667; 170 KB
  
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  Immunogenetic-Mechanisms-Driving-Norovirus-GII.4-Antigenic-Variation-ppat.1002705.g001.jpg 482 × 355; 68 KB
  
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  Immunogenetic-Mechanisms-Driving-Norovirus-GII.4-Antigenic-Variation-ppat.1002705.g002.jpg 473 × 566; 66 KB
  
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  Immunogenetic-Mechanisms-Driving-Norovirus-GII.4-Antigenic-Variation-ppat.1002705.g003.jpg 474 × 551; 53 KB
  
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  Immunogenetic-Mechanisms-Driving-Norovirus-GII.4-Antigenic-Variation-ppat.1002705.g004.jpg 487 × 618; 58 KB
  
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  Immunogenetic-Mechanisms-Driving-Norovirus-GII.4-Antigenic-Variation-ppat.1002705.g005.jpg 462 × 378; 60 KB
  
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  Immunogenetic-Mechanisms-Driving-Norovirus-GII.4-Antigenic-Variation-ppat.1002705.g006.jpg 638 × 465; 79 KB
  
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  Immunogenetic-Mechanisms-Driving-Norovirus-GII.4-Antigenic-Variation-ppat.1002705.g007.jpg 646 × 491; 78 KB
  
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  Immunogenetic-Mechanisms-Driving-Norovirus-GII.4-Antigenic-Variation-ppat.1002705.g008.jpg 484 × 560; 73 KB
  
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  Immunogenetic-Mechanisms-Driving-Norovirus-GII.4-Antigenic-Variation-ppat.1002705.g009.jpg 491 × 504; 114 KB
  
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  Immunogenetic-Mechanisms-Driving-Norovirus-GII.4-Antigenic-Variation-ppat.1002705.g010.jpg 465 × 399; 72 KB
  
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  Immunogenetic-Mechanisms-Driving-Norovirus-GII.4-Antigenic-Variation-ppat.1002705.g011.jpg 643 × 488; 82 KB
  
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  Immunogenetic-Mechanisms-Driving-Norovirus-GII.4-Antigenic-Variation-ppat.1002705.g012.jpg 605 × 696; 84 KB
  
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  Immunogenetic-Mechanisms-Driving-Norovirus-GII.4-Antigenic-Variation-ppat.1002705.g013.jpg 481 × 595; 52 KB
  
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  Immunogenetic-Mechanisms-Driving-Norovirus-GII.4-Antigenic-Variation-ppat.1002705.g014.jpg 648 × 203; 60 KB
  
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  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
  
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  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
  
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  Linking-Human-Diseases-to-Animal-Models-Using-Ontology-Based-Phenotype-Annotation-pbio.1000247.g001.jpg 477 × 316; 107 KB
  
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  Linking-Human-Diseases-to-Animal-Models-Using-Ontology-Based-Phenotype-Annotation-pbio.1000247.g002.jpg 505 × 677; 102 KB
  
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  Linking-Human-Diseases-to-Animal-Models-Using-Ontology-Based-Phenotype-Annotation-pbio.1000247.g003.jpg 661 × 409; 118 KB
  
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  Linking-Human-Diseases-to-Animal-Models-Using-Ontology-Based-Phenotype-Annotation-pbio.1000247.g004.jpg 559 × 696; 177 KB
  
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  Linking-Human-Diseases-to-Animal-Models-Using-Ontology-Based-Phenotype-Annotation-pbio.1000247.g005.jpg 469 × 1,099; 138 KB
  
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  Linking-Human-Diseases-to-Animal-Models-Using-Ontology-Based-Phenotype-Annotation-pbio.1000247.g006.jpg 496 × 825; 132 KB
  
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  Linking-Human-Diseases-to-Animal-Models-Using-Ontology-Based-Phenotype-Annotation-pbio.1000247.g007.jpg 496 × 256; 50 KB
  
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  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
  
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  MoClo assembly.png 3,263 × 2,582; 139 KB
  
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  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
  
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  Multisite Gateway Assembly.png 3,708 × 1,731; 83 KB
  
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  Nano tape used to hang household items.jpg 3,000 × 3,000; 4.33 MB
  
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  Nano tape.jpg 4,000 × 3,000; 3.17 MB
  
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  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
  
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  Overlap assembly using the MODAL format.png 4,923 × 1,392; 196 KB
  
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  Overview of DNA synthesis screening components.jpg 3,035 × 1,063; 374 KB
  
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  Part icon cds.svg 48 × 48; 7 KB
  
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  Part icon cell.svg 48 × 48; 23 KB
  
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  Part icon generator.svg 48 × 48; 15 KB
  
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  Part icon protein domain.svg 48 × 48; 8 KB
  
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  Part icon rbs.svg 48 × 48; 18 KB
  
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  Part icon regulatory.svg 48 × 48; 17 KB
  
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  Part icon terminator.svg 48 × 48; 15 KB
  
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  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
  
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  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
  
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  Syn3 genome.svg 340 × 203; 211 KB
  
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  SynBioCirc-AndLogicGate.jpg 1,065 × 236; 111 KB
  
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  Synthetic Biology Costa Rican Beach.jpg 1,200 × 1,600; 705 KB
  
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  Synthetic Biology Enabled Microbiome Engineering in Sustainable Agriculture.jpg 2,502 × 2,254; 571 KB
  
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  Synthetic Biology Open Language (SBOL) standard visual symbols.png 1,026 × 940; 91 KB
  
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  Synthetic Biology Open Language (SBOL) standard visual symbols.svg 600 × 460; 6 KB
  
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  Synthetic Biology Research at NASA Ames.jpg 4,416 × 3,312; 4.2 MB
  
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  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
  
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  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