Researchers from China have developed a solar-driven multi-field synergistic strategy to simultaneously harvest freshwater and boron from seawater. The innovative (MXene-MgO)@sodium alginate (SA) composite gel (MMS) achieves high evaporation rates and boron adsorption capacities, offering a sustainable solution to global water and food scarcity.

Metal hydrides with high hydrogen density provide promising hydrogen storage paths for hydrogen transportation. However, the requirement of highly pure H₂ for re-hydrogenation limits its wide application. Here, amorphous Al₂O₃ shells (10 nm) were deposited on the surface of highly active hydrogen storage material particles (MgH₂–ZrTi) by atomic layer deposition to obtain MgH₂–ZrTi@Al₂O₃, which have been demonstrated to be air stable with selective adsorption of H₂ under a hydrogen atmosphere with different impurities (CH₄, O₂, N₂, and CO₂). About 4.79 wt% H₂ was adsorbed by MgH₂–ZrTi@10nmAl₂O₃ at 75 °C under 10%CH₄ + 90%H₂ atmosphere within 3 h with no kinetic or density decay after 5 cycles (~ 100% capacity retention). Furthermore, about 4 wt% of H₂ was absorbed by MgH₂–ZrTi@10nmAl₂O₃ under 0.1%O₂ + 0.4%N₂ + 99.5%H₂ and 0.1%CO₂ + 0.4%N₂ + 99.5%H₂ atmospheres at 100 °C within 0.5 h, respectively, demonstrating the selective hydrogen absorption of MgH₂–ZrTi@10nmAl₂O₃ in both oxygen-containing and carbon dioxide-containing atmospheres hydrogen atmosphere. The absorption and desorption curves of MgH₂–ZrTi@10nmAl₂O₃ with and without absorption in pure hydrogen and then in 21%O₂ + 79%N₂ for 1 h were found to overlap, further confirming the successful shielding effect of Al₂O₃ shells against O₂ and N₂. The MgH₂–ZrTi@10nmAl₂O₃ has been demonstrated to be air stable and have excellent selective hydrogen absorption performance under the atmosphere with CH₄, O₂, N₂, and CO₂.

High‐entropy amorphous catalysts (HEACs) integrate multielement synergy with structural disorder, making them promising candidates for water splitting. Their distinctive features—including flexible coordination environments, tunable electronic structures, abundant unsaturated active sites, and dynamic structural reassembly—collectively enhance electrochemical activity and durability under operating conditions. This review summarizes recent advances in HEACs for hydrogen evolution, oxygen evolution, and overall water splitting, highlighting their disorder-driven advantages over crystalline counterparts. Catalytic performance benchmarks are presented, and mechanistic insights are discussed, focusing on how multimetallic synergy, amorphization effect, and in‐situ reconstruction cooperatively regulate reaction pathways. These insights provide guidance for the rational design of next‐generation amorphous high‐entropy electrocatalysts with improved efficiency and durability.

Endometriosis is a chronic gynecological disease requiring relatively long therapy of at least 3 to 6 months, and has a high recurrence rate. Further research using animal models is needed to better understand the disease. During the COVID-19 pandemic, laparoscopic surgeries were suspended to minimize infection risk. This study aims to establish an experimental animal model of endometriosis using stored chocolate cyst pulp. This laboratory experimental study included 12 female Mus musculus mice. Immunodeficient mice were intraperitoneally injected with a previously prepared chocolate cyst slurry. On the 15th day, the mice were euthanized, and anatomical pathological examination was performed using hematoxylin and eosin (HE) staining.