Using the latest sequencing technology, #BioEGSB research scientist Lauren Lui is cataloguing the complete genomes of the microbes in the San Francisco Estuary near the Sacramento-San Joaquin River Delta. Her work could help scientists formulate a predictive understanding of how microbes respond to environmental changes.

Read the full story: https://biosciences.lbl.gov/2024/12/23/sequencing-the-mysterious-microbes-of-the-san-francisco-estuary/

@berkeleylab

Sequencing the Mysterious Microbes of the San Francisco Estuary - Biosciences Area

Researcher Lauren Lui is decoding the microbial communities of the Sacramento-San Joaquin River Delta through genetic sequencing.

Biosciences Area

A collaboration with researchers from Berkeley Lab Earth and Environmental Sciences Area (EESA) (Kolby Jardine and Luiza Beraldi Gallo) and #BioEGSB (Trent Northen, Aymerick Eudes, and Suzanne Kosina) has discovered a new carbon “pathway” occurring during photosynthesis that is important to understanding plant growth and how plants respond to changing climates.

@berkeleylab

https://biosciences.lbl.gov/2024/12/09/research-team-uncovers-a-hidden-carbon-pathway-in-photosynthesis/

Research Team Uncovers a Hidden Carbon Pathway in Photosynthesis  - Biosciences Area

A collaborative research team, including the Environmental Genomics and Systems Biology Division’s Trent Northen, Suzanne Kosina, and Aymerick Eudes, has discovered a new carbon “pathway” occurring during photosynthesis that is important to understanding plant growth and response to climate change. Stemming from what is known as the C1 photosynthesis reaction, in which plants use carbon ... Read more »

Biosciences Area

#TeamBioSci researchers with #BioEGSB and @jgi leveraged metabolomics capabiliies at @berkeleylab to help collaborators at Wake Forsest better understand the role viruses that infect phytoplankton play in the marine food web.

https://biosciences.lbl.gov/2024/11/25/when-marine-algae-get-sick-how-viruses-shape-microbe-interactions/

When Marine Algae Get Sick: How Viruses Shape Microbe Interactions - Biosciences Area

Biosciences Area researchers collaborated on a Wake Forest-led study to better understand what happens when viruses infect photosynthetic phytoplankton.

Biosciences Area

#BioEGSB's Trent Northen is leading the conversation to develop community standards for researching synthetic communities (#SynComs) in plant–microbiota. Synthetic communities are increasingly being used, yet, the lack of community standards limits the efficiency and progress in this important area of research.

@jgi @berkeleylab Read the Nature MicroBiology paper here:

https://www.nature.com/articles/s41564-024-01833-4

Community standards and future opportunities for synthetic communities in plant–microbiota research - Nature Microbiology

Here the authors discuss the use of synthetic communities, or SynComs, in plant–microbiome research and propose steps to develop community standards that will support future research.

Nature

Genetic dark matter is DNA that can't easily be sequenced with traditional methods but #BioEGSB researchers have discovered a technique that reveals the mysteries of microbial genomes

https://biosciences.lbl.gov/2024/08/19/revealing-the-mysteries-within-microbial-genomes/

Revealing the Mysteries Within Microbial Genomes - Biosciences Area

A new technique called Boba-seq makes it easier to discover the traits or activities encoded by microbial genes of unknown function—a key step toward understanding the roles and impact of individual species.

Biosciences Area

#TeamBioSci researchers have developed a new technique, Boba-seq, to uncover the traits encoded by genes of unknown function in microbes. This method has already identified bacterial functions relevant to human health and will further explore functions in ecosystems.
#BioEGSB | https://sciencemastodon.com/@berkeleylab

https://biosciences.lbl.gov/2024/08/19/revealing-the-mysteries-within-microbial-genomes/

Berkeley Lab (@[email protected])

0 Posts, 2 Following, 177 Followers · Official Mastodon account of Lawrence Berkeley National Laboratory (LBNL).

Science Mastodon

Attention Job Seekers: We have several open positions on #TeamBioSci at @berkeleylab

Filamentous Fungi Research Scientist in #BioEGSB - Position # 102409

Laboratory Ecosystem Research Scientist in #BioEGSB - Position # 102408

Postdoctoral Fellow (Health Sciences) in #BioBSE - Position # 101639

Biologist Postdoctoral Fellow in #BioMBIB - Position # 102365

Computational Postdoctoral Fellow (Optimization and Learning for Imaging) in #BioMBIB - Position # 101196

https://jobs.lbl.gov/et/rWgbpVSH/page/biosciences-1653

Trent Northen's lab in #BioEGSB at @berkeleylab are using fabricated ecosystems— or #EcoFABs— to test how different forms of nitrogen—ammonium, nitrate, or a combination—affect the production of organic substances given off by the roots of a small grass species used as a model for bioenergy grasses. They found that varying levels of nitrogen affected the type of compounds produced by the roots and that the plants grew best when they received both ammonium and nitrate.

https://biosciences.lbl.gov/2024/02/29/ecofab-a-tool-for-combating-climate-change-and-training-the-next-generation/

EcoFAB: A Tool for Combating Climate Change and Training the Next Generation - Biosciences Area

Fabricated ecosystems are takeout box–sized growth chambers developed at Berkeley Lab to be a standardized and reproducible platform for conducting experiments on model plants and the microbes that live around their roots.

Biosciences Area

Scientists are using the DNA from soil microbes to model how they function and use carbon, ultimately helping to advance the accuracy of climate models.

#BioEGSB #soilmicrobes

https://biosciences.lbl.gov/2024/02/21/improving-climate-predictions-by-unlocking-the-secrets-of-soil-microbes/

Improving Climate Predictions by Unlocking the Secrets of Soil Microbes - Biosciences Area

A new climate model that incorporates genetic information from soil microbes facilitates insights into how they efficiently store carbon from plant roots.

Biosciences Area

Susannah Tringe, director of our #BioEGSB division, was recently interviewed by Scientific American about her research wetlands methane emissions.

@berkeleylab
https://www.scientificamerican.com/article/wetlands-made-salty-by-rising-seas-produce-more-heat-trapping-methane/

Wetlands Made Salty by Rising Seas Produce More Heat-Trapping Methane

Wetlands with a small amount of salinity can produce more methane gas than those filled with freshwater or lots of seawater, new research suggests

Scientific American