Wheat straw incorporation and nitrogen fertilization increase antibiotic resistance gene abundance and dissemination potential in agricultural soil
Peer-Reviewed Publication
Updates every hour. Last Updated: 18-Jun-2026 13:16 ET (18-Jun-2026 17:16 GMT/UTC)
Antibiotic resistance genes (ARGs) are emerging contaminants that are widely distributed in agricultural soils and pose potential threats to human health through the soil‒plant system.
A groundbreaking study published in Soil Ecology Letters unveils a novel deep learning method to rapidly and accurately identify soil-dwelling Collembola (springtails), tiny arthropods critical for soil health and ecosystem functioning. Developed by an international team led by researchers from Sun Yat-sen University and the Chinese Academy of Sciences, this AI-powered tool achieves over 97% accuracy in detecting these organisms, offering a transformative solution for biodiversity monitoring and environmental assessment.
In a new study from Kindai University, researchers show that acute systemic inflammation triggered by lipopolysaccharide selectively disrupts metabolism in the cerebrum. Using a high-throughput metabolomics platform, the team discovered significant reductions in N-acetylaspartate and malic/aspartic acids alongside an accumulation of urea—indicating impaired neuronal function and disturbances in the malate–aspartate shuttle and urea cycle. These findings identify potential early biomarkers of neuroinflammation, and may support future advances in detecting inflammation-linked neurodegenerative disease.
Mechanical ventilation is a crucial part of critical care. Many parameters must be carefully monitored to mitigate dangerous disorders like acute respiratory distress syndrome (ARDS); however standardized ventilation protocols are often not responsive enough. Researchers from Spain report that artificial intelligence (AI) can bridge this gap. By integrating live pulmonary parameters with historic data on ARDS progression, AI can modulate ventilation to aid recovery and reduce the need for emergency interventions.
Composite copper–lanthanum and copper–yttrium oxides developed by researchers from Japan demonstrate exceptionally high antiviral activity against non-enveloped virus. These oxides are highly stable and achieve over 99.999% viral inactivation in laboratory tests. Using first-principles calculations and experimental analysis, researchers identified how surface charge, protein inactivation, and copper valence states drive the antiviral performance—setting the stage for advanced antiviral material design.