Methane emissions from cattle and sheep contribute to global greenhouse gas emissions and reflect a loss of dietary energy that could otherwise support animal growth and productivity, which is a major challenge for sustainable livestock production. M ost existing approaches to reduce methane emissions focus primarily on suppressing methanogenesis. In a study published in The Innovation , a researc
Life SciencesEnvironment & ClimateSustainable Development#Chinese Academy of Sciences#Research News#Sustainable Development#Pollutants#genomics#biology#climate#decarbonization
Soil salinization poses a serious threat to global rice production. At present, the natural‑variation‑based genetic basis of rice salt tolerance remains poorly understood, and only a handful of major genes related to salt tolerance have been functionally characterized. It is critical to identify key gene modules in salt signaling pathways. In a study published in Developmental Cell on August 28, a
Life SciencesSustainable Development#Chinese Academy of Sciences#Research News#Sustainable Development#genomics#biology
The Department of Energy’s (DOE) Oak Ridge National Laboratory (ORNL) earned a new lab record with 22 R&D 100 Awards in 2026 for technologies that advance energy, manufacturing, computing, biotechnology and other fields. ORNL led 18 of the winning technologies and contributed to four additional award-winning projects led by partner institutions.
Fusion EnergyLife SciencesEnvironment & Climate#Oak Ridge National Laboratory#fusion#plasma physics#genomics#biology#climate#decarbonization#grid
LBMS marks five years as a leading cryo-EM facility, advancing biological discovery through cutting-edge imaging and collaboration.
Medical ResearchLife SciencesEnvironment & Climate#Brookhaven National Laboratory#medical research#clinical research#genomics#biology#climate#decarbonization
Researchers uncover a critical molecular switch that helps bacteria survive environmental stress and antibiotic exposure.
Medical ResearchLife SciencesEnvironment & Climate#Brookhaven National Laboratory#medical research#clinical research#genomics#biology#climate#decarbonization
Precise manipulation of large genomic fragments is a critical need in crop breeding and synthetic biology. In crop genomes, superior traits are often associated with structural variations. However, existing large-fragment editing tools such as CRISPR-Cas systems and site-specific recombinases have limitations. In 2024, the development of the bridge RNA-guided IS110-family recombinase system provid
Medical ResearchLife Sciences#Chinese Academy of Sciences#Research News#medical research#clinical research#genomics#biology
DNA double-strand breaks (DSBs) are posing serious threats to genome stability. During mitosis, cells mainly rely on polymerase theta (Polθ) -mediated repair to fix these breaks. However, how the CIP2A-TOPBP1 complex regulates this process remains unclear. In a study published in PNAS , a team led by Prof. ZHAO Guoping from the Hefei Institutes of Physical Science of the Chinese Academy of Science
Medical ResearchLife SciencesProteins#Chinese Academy of Sciences#Research News#Proteins#medical research#clinical research#genomics#biology
Have you ever wondered how a flower ensures that it's pollen-catching "landing pad" (the stigma) stays neatly separated from the "pollen tube highway" beneath it (the style)? This clear boundary is crucial for plant reproduction, but for decades, biologists didn't know how it was drawn. In a study published in PNAS , researcher s from the Institute of Botany of the Chinese Academy of Sciences (CAS
Life SciencesEvolution#Chinese Academy of Sciences#Research News#Evolution#genomics#biology
