Redistributing sunlight boosts algae biomass productivity sixfold

Jul, Thu, 2026
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Algae are increasingly being explored as sustainable “living factories” that can convert sunlight and carbon dioxide into renewable fuels, plastics, pharmaceuticals and other valuable products.

Redistributing sunlight boosts algae biomass productivity sixfold
Algae are increasingly being explored as sustainable "living factories" that can convert sunlight and carbon dioxide into renewable fuels, plastics, pharmaceuticals and other valuable products.
ATPγS recycling opens cheaper pathways to increased drug stability
Pharmaceutical drugs often rely on chemical compounds found in the body. Take phosphate, a common compound cells use as a chemical switch. In a process called phosphorylation, cells can add a phosphate to a molecule and turn its function on. When the function is no longer needed, cells can remove the phosphate through dephosphorylation, turning the molecule back off.
One of industry's toughest lignin byproducts could become feedstock for valuable chemicals
The pulp and paper industry, which manufactures everything from tissue paper to cardboard, also generates a significant yet often overlooked byproduct—a complex polymer called lignin. Around 100 million tons of lignin are produced each year. Despite being the largest natural source of aromatic carbon on the planet, most of it is burned for energy. This is due to its complex structure, which is notoriously difficult to process. Researchers are exploring ways to leverage industrial lignin by developing methods to convert it into useful bio-based chemicals.
Stable DNA building blocks enable faster oligonucleotide synthesis without oxidation
The chemical synthesis of oligonucleotides (ONs) is central to modern molecular biology, diagnostics and nucleic acid therapeutics. While demand for high-quality ONs is increasing, the conventional synthetic method has long-standing efficiency challenges. Widely adopted P(III)-phosphoramidite-based ON synthesis requires an oxidation step after every nucleotide coupling cycle and uses moisture-sensitive building blocks, adding complexity to the workflow and slowing the process.
Flexible DNA directs proteins into atomically ordered crystals, overturning crystallization assumptions
For decades, scientists have largely relied on painstaking trial and error to coax proteins into crystalline forms. Crystallization enables scientists to determine the molecular structures of proteins, which can provide a blueprint for designing drugs, engineering enzymes and understanding disease.