Science Highlights

Like desert wildflowers that bloom after rain, soil bacteria have evolved life strategies that determine when and where they grow. Having a small, streamlined genome may help some bacteria survive in dry soils.

Soil Bacteria Link their Life Strategies to Soil Conditions

Assessing the genomes of soil bacteria around the globe, researchers identified three dominant life strategies linked to different types of soil.

This image shows Bisophere 2 (a), which houses a tropical rainforest (b) where researchers performed an ecosystem-scale drought experiment. Researchers labeled the soil (c) to track the release of carbon dioxide and volatile organic compounds.

During Droughts, Soil Microbes Produce Volatile Carbon Metabolites

In a warmer world, microbes in drought-stricken soils convert less carbon to carbon dioxide and more to volatile intermediates.

Images of Yarrowia lipolytica surrounding and growing on polyolefin oil droplets (large red circles). Cells were stained blue to show the chitin cell walls and red to show the lipid bodies inside the cells and the oil droplets outside the cells.

Yeast Uses Plastic Waste Oils to Make High-Value Chemicals

Yarrowia lipolytica reallocates its production of protein toward energy and lipid metabolism to grow on hydrocarbons and produce high-value chemicals.

Left: Scanning electron microscope and X-ray (EDX) images of microbe consortia (yellow) and silica (blue). Right: transmission electron microscope image of microbe consortia with silica spheres of silica.

Scientists Confirm that Methane-Processing Microbes Produce a Fossil Record

Microorganisms and their metabolisms help silica to mineralize near deep ocean methane seeps.

The interior of the SPRUCE experimental chamber showing instruments to monitor climate changes.

In Peatland Soil, a Warmer Climate and Elevated Carbon Dioxide Rapidly Alter Soil Organic Matter

Experiments find increased temperatures and carbon dioxide rapidly altered peatland carbon stocks, highlighting peatlands’ vulnerability to climate change.

Composite of geopotential heights [m] (contours) and anomalies (colors) at 700 Hectopascal (hPa) of air pressure for each SOM node. These nodes help unpack how high- and low-pressure systems and other climate factors contribute to Texas rainstorms.

High-Pressure Systems Favor Sea-Breeze Convection Over Southeastern Texas

AI reveals relationships between weather systems and cloud physics.

The Model for Prediction Across Scales framework uses unstructured Voronoi tessellation meshes for sea ice dynamics. This approach captures sea ice in greater complexity than other methods and allows researchers to focus on specific regions of interest.

Beyond Ice Cubes: Researchers Bring Complex Shapes to Sea-Ice Dynamics Models

Voronoi tessellation meshes focus on sea ice areas of interest and reduce computer resource needs.

A novel method improves the accuracy of the CRISPR Cas9 gene editing tool scientists use to modify microbes for renewable fuels and chemicals production. It draws on quantum chemistry, artificial intelligence, and synthetic biology.

How the Quantum World Can Help Scientists Engineer Biology

Improving genome engineering with quantum biology and artificial intelligence.

High-Throughput Chromosome Conformation Capture technology allowed scientists to detect bacteriophage-host infection networks and how they varied between dry and wet soil.

Researchers Directly Detect Interactions Between Viruses and their Bacterial Hosts in Soils

The first application of High-Throughput Chromosome Conformation Capture (Hi-C) Metagenome Sequencing to soil captures phage-host interactions at the time of sampling.

Surprising Strategies: Scientists Quantify the Activity of Algal-Associated Bacteria at the Microscale

High resolution isotope analysis of the algal microbiome identifies ecological strategies not predicted by genome content.

A bacterial virus inserting genetic material inside a bacterial cell during infection.

Creating a Virus-Resistant Bacterium Using a Synthetic Engineered Genome

Scientists engineered a model bacterium's genetic code to make it virus-resistant and unable to exchange genetic material or grow without special media.

Myo-inositol transporters affect colonization via cross-kingdom signaling. By exporting myo-inositol, plant cells trigger bacteria to swim toward the plant.

Signaling Across Kingdoms to Build the Plant Microbiome

Scientists discover a mechanism for plant-microbe interactions.

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