Controllable assembly of BaCrO4@B core shell energetic microspheres based on micro-scale multiphase flow
Peer-Reviewed Publication
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Updates every hour. Last Updated: 23-Oct-2026 01:16 ET (23-Oct-2026 05:16 GMT/UTC)
Researchers have developed a controllable micro-scale multiphase flow strategy for fabricating BaCrO₄@B core-shell energetic microspheres with highly uniform structures and precisely tunable shell thickness. The study demonstrates that rational microstructural design enables controllable thermal decomposition and stable combustion behavior, providing a scalable platform for customizing next-generation composite energetic materials.
Researchers have developed a multiscale simulation framework combining ab initio molecular dynamics (AIMD) and reactive molecular dynamics (RMD) to investigate how molecular vacancies and nanoscale voids jointly influence hotspot formation in RDX. The study reveals a shock-velocity-dependent mechanism in which vacancies dominate hotspot initiation at lower shock strengths, while void collapse governs thermal localization under stronger shock loading.
Researchers proposed an image-aided terminal guidance attitude control method for Explosively Formed Penetrator (EFP)-equipped multirotors to achieve long-range precision strikes, solving disturbance, EFP dispersion and visual-attitude coupling problems. Published in Defence Technology, the work built a multi-source EFP dispersion model, designed an NTSM-STO composite controller, and validated its fast response, strong robustness and high hit rate via Monte Carlo simulations and real flight tests.
This review synthesizes the evolution of aquatic ecosystem health assessment and proposes a paradigm shift from descriptive monitoring to predictive, intelligent governance. Led by Yong Liu from Peking University, the research team introduces a gene-to-landscape framework that integrates multi-omics, environmental DNA, ecological observation, and AI-enabled remote sensing to enable early warning, causal attribution, and anticipatory decision support for freshwater ecosystems under global change.
This review summarizes flexible electromagnetic induction-type tactile sensors that convert touch-induced magnetic-flux variation into electrical signals. It establishes an integrated framework linking magnets, coils, soft materials, signal processing and circuits, and discusses their relevance to wearable electronics, medical monitoring, human-machine interfaces and intelligent robotics.
Researchers tracked longitudinal alterations in adipose and muscle tissue through routine CT scans. Worsening visceral fat tissue degeneration predicts complications for compensated chronic hepatitis B-related cirrhosis, while sustained muscle loss signals risk in decompensated patients.
Ulinastatin (UTI), a protein naturally found in human urine, exerts hepatoprotective effects by attenuating inflammation, oxidative stress, and cell death, and modulating immunity and hemostasis. This review synthesizes existing evidence on UTI's therapeutic potential across seven liver conditions, from sepsis-induced hepatic injury to liver cancer.
Rechargeable magnesium batteries promise higher volumetric capacity and greater resource abundance than lithium-ion systems, yet their anodes have been crippled by native oxide layers and uneven stripping/plating that shorten cycle life and prevent scale-up. Researchers have now developed a simple protonated organic solvent treatment that removes the surface oxide, forms a functional magnesium ethoxide interlayer, and relieves surface stress while preserving the anode's original microstructure. The result: symmetric pouch cells that cycle for over 4,000 hours and the world's first 1.07 ampere-hour (Ah) multilayer magnesium pouch cell, marking a critical step toward commercial-scale rechargeable magnesium batteries.