Therapeutic Errors Associated With Antithrombotic Medications Reported to United States Poison Centers.

The objective of this study was to investigate the characteristics and trends of therapeutic errors in non-healthcare facility settings associated with antithrombotic medications reported to United States Poison Centers by analyzing data from the National Poison Data System from 2000 to 2021. There were 57 288 reported therapeutic error-related exposures involving antithrombotic medications as the primary substance. The rate of therapeutic errors increased by 590.

Annexins: central regulators of plant growth and stress signaling.

Annexins are a family of multifunctional calcium-dependent and phospholipid-binding proteins that are widely distributed in the plant kingdom. They have a highly conserved evolutionary history that dates back to single-celled protists. Plant annexins, as soluble proteins, can flexibly bind to endomembranes and plasma membranes, exhibiting unique calcium-dependent and calcium-independent characteristics.

Dipolar wavevector interference induces a polar skyrmion lattice in strained BiFeO films.

Skyrmions can form regular arrangements, so-called skyrmion crystals (SkXs). A mode with multiple wavevectors q then describes the arrangement. While magnetic SkXs, which can emerge in the presence of Dzyaloshinskii-Moriya interaction, are well established, polar skyrmion lattices are still elusive.

Dietary limonin alleviates Typhimurium-induced colitis dual targeting virulence SopB and SopE2 and inhibiting RAC1/CDC42/Arp2/3 pathway and regulating gut microbiota.

serovar Typhimurium (STM) causes severe colitis, necessitating the development of effective drugs. Here, the dockings of limonin with the STM T3SS-1 virulence factor SopB or SopE2 showed strong binding activity and was verified by CETSA and DARTS assays . Limonin inhibited the enzyme activities and expression of SopB and SopE2 .

Smart Vascular Grafts with Integrated Flow Biosensors for Hemodynamic Real-Time Monitoring and Vascular Healthcare.

Real-time monitoring of hemodynamics is crucial for diagnosing disorders within implanted vascular grafts and facilitating timely treatment. Integrating vascular grafts with advanced flexible electronics offers a promising approach to developing smart vascular grafts (SVGs) capable of continuous hemodynamic monitoring. However, most existing SVG devices encounter significant challenges in practical applications, particularly regarding biomechanical compatibility and the effective evaluation of vascular status.