Aloe Leaves-Inspired Multi-Stimuli Bidirectional Bending Self-Sensing Actuator for Smart Solar Panel.

Soft actuators with multi-stimuli response have shown promising applications in soft intelligent robots. However, most soft actuators are limited by the unidirectional actuation and self-perception capabilities. Here, a bilayer self-sensing actuator with bidirectional actuation is proposed, which showed exceptional bidirectional actuation, self-sensing of temperature and moisture, and smart solar panel.

The effect of intercropping with Roxb. on rhizospheric microorganism of L.

The intercropping pattern promotes the sustainable development of efficient agriculture, especially cash crops, such as L. and Roxb. intercropping plantation in China.

3D Bioprinting and Artificial Intelligence-Assisted Biofabrication of Personalized Oral Soft Tissue Constructs.

Regeneration of oral soft tissue defects, including mucogingival defects associated with the recession or loss of gingival and/or mucosal tissues around teeth and implants, is crucial for restoring oral tissue form, function, and health. This study presents a novel approach using three-dimensional (3D) bioprinting to fabricate individualized grafts with precise size, shape, and layer-by-layer cellular organization. A multicomponent polysaccharide/fibrinogen-based bioink is developed, and bioprinting parameters are optimized to create shape-controlled oral soft tissue (gingival) constructs.

Mechanistic insights into the viral microorganism inactivation during lime stabilization for wastewater sludges.

The pathogens inactivation in wastewater sludges is vitally important for safely managing solid wastes and protecting public and environmental health especially in the emergency. Reports have shown the effectiveness of lime to kill virus pathogens in sludges, but mechanism of virus inactivation and related human diseases is unclear. This study evaluated representative limes of CaO/CaO on actual viral microorganism inactivation by viral metagenomic sequencing technology.

Combining Network Pharmacology and Transcriptomic Strategies to Explore the Pharmacological Mechanism of Total Ginsenoside Ginseng Root and Its Impact on Antidepressant Effects.

Depression is one of the most common neurological diseases, which imposes a substantial social and economic burden on modern society. The purpose of this study was to explore the mechanism of total ginsenoside ginseng root (TGGR) in the treatment of depression through a comprehensive strategy combining network pharmacology, transcriptomics, and in vivo experimental validation. The Traditional Chinese Medicine Systematic Pharmacology (TCMSP) database and literature were used to collect the main components and targets of TGGR.