‘Nature’s algorithm’ found in Chinese money plants
Peer-Reviewed Publication
Updates every hour. Last Updated: 12-May-2026 07:16 ET (12-May-2026 11:16 GMT/UTC)
CSHL Associate Professor Saket Navlakha and former graduate student Cici Zheng have discovered a naturally occurring Voronoi diagram in Chinese money plants’ leaves. Their research answers a longstanding question in biology regarding the mathematics of looping vein structures and could help explain how plants solve complex problems in nature.
A largely overlooked structure inside our cells may play a crucial role in how the brain forms, offering new insight into developmental disorders and potential therapies.
A UC Davis study in Science found that 7% to 16% of global plant species studied face high risk of extinction by 2100 under current climate change projections.
A study of the 2025 Myanmar earthquake, published in Science, found that seemingly “simple” faults can behave in surprisingly complex ways. Small differences in how parts of a fault move over time may influence where quakes start and how far they spread. The findings could improve risk estimates for major faults, including California’s San Andreas.
Research funding agencies supported by taxpayer dollars do more than write checks — they help build entire scientific fields, reveals a new Northwestern University study recently published in Nature Communications.
The study details how Northwestern scientists and National Institutes of Health (NIH) historians developed software that extracts and connects information across thousands of documents in a publicly accessible digital archive of the Human Genome Project (HGP). In 2023, the National Human Genome Research Institute (NHGRI) created the archive of the HGP, a landmark international research effort between 1990 and 2003 that successfully mapped and sequenced the entire human genetic code (roughly 3 billion DNA base pairs).
Using the new software, the scientists revealed how federal funding agencies did more than distribute money. They helped guide the development of genomics by coordinating scientific communities, supporting the scientific workforce, developing shared research infrastructure and helping resolve technical challenges that no single laboratory could manage alone.
NIH leaders were directly involved in solving technical problems, coordinating large-scale collaborations and ensuring continuity of expertise across successive projects, the study found. Continuity of personnel within NIH also was important to preserve expertise between projects, said the co-corresponding author.