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Transforming Plants Into Biofuels and Bioproducts

New research by a team that includes scientists from Biosciences researchers shows that some simple changes to Agrobacterium tumefaciens can significantly improve the efficiency of introducing DNA into a genome, also known as “transformation.” Agrobacterium in the wild causes damaging tumors in flowering plants, including some economically important crops, but its ability to insert its own DNA into host plants is what makes it both a pest to farmers and a powerful tool for biotechnology.

The research, recently published in Nature Biotechnology, was led by Patrick Shih, Deputy Vice President, Feedstocks Division and Director of Plant Biosystems Design at the Joint BioEnergy Institute (JBEI), a DOE Bioenergy Research Center led by Berkeley Lab.

“The current plant transformation approach is slow and stands as a significant bottleneck in the push to develop biology-based fuels and materials that aren’t derived from petroleum,” said Shih, who is also a faculty scientist in Berkeley Lab’s Environmental Genomics and Systems Biology division. “

With our research, we’ve been able to improve our ability to introduce DNA into plant genomes,” said Shih. “And by being able to transform plants and fungi more efficiently, we can improve our ability to make biofuels and bioproducts.”The milestone is part of a broader effort at Berkeley Lab to harness the power of microbes and plants to make new biology-based products, materials, and fuels while reducing our dependence on plastics and fossil fuels.

Source : lbl.gov

Trending Video

Supplemental Nitrogen on Soybeans: Can Early Nitrogen Increase Yield?

Video: Supplemental Nitrogen on Soybeans: Can Early Nitrogen Increase Yield?

Can supplemental nitrogen help soybeans reach higher yield potential? Technical Agronomist Tim Sickman walks through an ongoing trial at the Nutrien Innovation Farm in Owensboro, Kentucky, exploring whether a modest amount of nitrogen applied at planting can support higher-yielding soybean environments.

The trial compares 30 pounds of supplemental nitrogen across both 15- and 30-inch rows, along with treatments that include sulfur and micronutrients. Similar trials conducted in 2024 and 2025 delivered a six- to seven-bushel yield response, prompting the team to expand the research this season.

Early observations show that treated soybeans are slightly taller and averaging about two additional nodes on the main stem. These added nodes could create more opportunities for blooms and pods, but the true results will come at harvest when the team evaluates pod development, seed fill and final yield.

In This Video:

Why high-yield soybeans may need supplemental nitrogen

Results from the 2024 and 2025 trials

Nitrogen treatments in 15- and 30-inch rows

Fertilizer placement and application methods

Differences in plant height and node counts

Potential effects on pod development and yield