← Return to entry

600-GEnetic-Engineering-to-fight-climate-change

Sizes: 300 × 300 / 500 × 282 / 600 × 338 / 600 × 338 / 600 × 338 / 600 × 338 / 600 × 338 / 100 × 100 / 500 × 230 / 220 × 150 / 600 × 338

With international cooperation, Synthetic and systems biology (SSB) can be a valuable part of an organized strategy to mitigate climate change. CREDIT @BioDesign Research @Nanjing Agriculture University @SPJ

Share on Facebook

Pin on Pinterest

Tweet about this on Twitter

Share on LinkedIn

Image Info

Dimensions: 600 × 338 pixels

Gallery

Karen Echeverri prepares to scoop up an axolotl in the Echeverri Lab. (Credit: Dee Sullivan)

Javier Lloret, SES students Lauren Johnson, Grant McKnight, Kyra Madunich and Olivia Shao, Coordinator Sung Bin Park

An octopus (not Inky). Credit: Roger Hanlon

Linda Deegan measures an Arctic grayling prior to tagging it for tracking. Credit: Alan Burdick

Lionel Christiaen amputating larval tails at the base to trigger regeneration in his MBL lab in the Marine Resources Center. Credit: Sarah Lawhun

Nexus between phylogeny and function of the newly discovered nitrogen fixers in surface ocean metagenomes. (a) Phylogenomic analysis of 432 Proteobacteria genomes and 43 Planctomycetes genomes that Delmont and colleagues characterized (including the nine non-photosynthetic N fixers) using a collection of 37 phylogenetic marker gene families. Layers surrounding the phylogenomic tree indicate genome size and taxonomy of each genome at the phylum and class level. (b) Functional network of the nine non-photosynthetic N fixers based on a total of 5,912 identified gene functions. Size and color of genomic nodes represent the number of detected functions and genomic taxonomy, respectively. The color of functional nodes indicates their occurrence in the different genomes. Credit: Delmont et al (2018) Nature Microbiology, doi: 10.1038/s41564-018-0176-9

← Return to entry

Leave a Reply Click here to cancel reply.