Could DNA be glycosylated? A new study published in Engineering explores this intriguing question, suggesting that DNA might undergo glycosylation, a process that could revolutionize our understanding of cellular biology. Discover how this potential discovery could impact the ceullar sociomateriality from gene regulation to disease prevention and treatment.

This article highlights a new synthetic biology platform developed by researchers at South China Agricultural University. The platform, known as FerTiG, is designed to degrade tetracycline residues in various aquatic environments. By integrating multiple functional modules into a single enzyme assembly, FerTiG offers enhanced stability and efficiency for antibiotic removal. The study demonstrates its effectiveness in different water matrices and confirms its biosafety through ecological and in vivo tests. This work presents a potential solution for addressing antibiotic pollution in water sources.

The maritime sector, a cornerstone of global trade, is facing increasing pressure to reduce its carbon footprint. With shipping contributing significantly to greenhouse gas emissions, finding sustainable solutions is more critical than ever. A new study titled "Direct Air Capture-Assisted Sustainable Fuel Solution in the Maritime Sector: A Carbon Footprint Perspective" offers a promising pathway forward by exploring the potential of direct air capture (DAC) technology combined with electro-methanol production.

Manual harvesting remains a major bottleneck in muscadine grape production, accounting for up to 40% of production costs. 

Salk Institute researchers surveyed human embryonic kidney cells and skin biopsy-derived fibroblasts from Alzheimer’s patients to identify proteins involved in regulating mitochondrial stress—a hallmark of aging. The newly identified proteins could one day serve as biomarkers to screen for in skin biopsies, simplifying diagnosis and assessment of Alzheimer’s disease.

For decades, Alzheimer’s disease (AD) research has focused on its visible villains—amyloid plaques and tau tangles. But beneath the surface, another player may be quietly steering the disease’s course: lipid metabolism. Lipids, the essential substances that build and fuel the brain, are proving to be powerful influencers of disease progression. When their balance falters, harmful proteins accumulate, synapses weaken, and inflammation spreads. This new review pulls together cutting-edge findings that link genetic risk factors, like APOE4, to disrupted cholesterol transport, faulty fat storage, and poor lipid clearance—unveiling a hidden layer of AD biology and pointing toward untapped therapeutic strategies.

How do plants regenerate roots from scratch after being wounded? In this study, scientists used spatial transcriptomics and time-series gene expression analysis to trace poplar root regeneration from its earliest stages.