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.

A review in the Chinese Medical Journal explores Baveno VII’s transformative recommendations for portal hypertension, covering decompensation prevention, acute variceal bleeding management, recompensation, and future research priorities to advance personalized care.

Onco-neurology is an emerging multi-disciplinary sub-specialty dedicated to the study of the indirect effects of tumors and their therapeutic processes on the nervous system. Its core lies in elucidating the complex pathophysiological mechanisms by which tumors induce neurological dysfunction through non-metastatic mechanisms. The Neurology and Oncology Departments of Renji Hospital, Shanghai Jiao Tong University School of Medicine, have accumulated extensive experience in the clinical practice of onco-neurology, providing comprehensive and personalized medical care to patients with oncological neurological complications through a multi-disciplinary collaboration model. This article, for the first time, introduces the concept of onco-neurology and elaborates on its classification, diagnosis, and treatment essentials. It aims to establish an organic intersection between oncology and neurology from an academic perspective, providing theoretical guidance and practical instructions for enhancing the efficacy of tumor treatment and reducing nervous system-related adverse effects in clinical practice, ultimately improving tumor patients' quality of life and survival outcomes.

High-nickel ternary cathodes hold a great application prospect in solid-state lithium metal batteries to achieve high-energy density, but they still suffer from structural instability and detrimental side reactions with the solid-state electrolytes. To circumvent these issues, a continuous uniform layer polyacrylonitrile (PAN) was introduced on the surface of LiNi_0.8Mn_0.1Co_0.1O₂ via in situ polymerization of acrylonitrile (AN). Furthermore, the partial-cyclized treatment of PAN (cPAN) coating layer presents high ionic and electron conductivity, which can accelerate interfacial Li⁺ and electron diffusion simultaneously. And the thermodynamically stabilized cPAN coating layer cannot only effectively inhibit detrimental side reactions between cathode and solid-state electrolytes but also provide a homogeneous stress to simultaneously address the problems of bulk structural degradation, which contributes to the exceptional mechanical and electrochemical stabilities of the modified electrode. Besides, the coordination bond interaction between the cPAN and NCM811 can suppress the migration of Ni to elevate the stability of the crystal structure. Benefited from these, the In-cPAN-260@NCM811 shows excellent cycling performance with a retention of 86.8% after 300 cycles and superior rate capability. And endow the solid-state battery with thermal safety stability even at high-temperature extreme environment. This facile and scalable surface engineering represents significant progress in developing high-performance solid-state lithium metal batteries.

Alkali metal batteries (AMBs) have undergone substantial development in portable devices due to their high energy density and durable cycle performance. However, with the rising demand for smart wearable electronic devices, a growing focus on safety and durability becomes increasingly apparent. An effective strategy to address these increased requirements involves employing the quasi-solid gel electrolytes (QSGEs). This review focuses on the application of QSGEs in AMBs, emphasizing four types of gel electrolytes and their influence on battery performance and stability. First, self-healing gels are discussed to prolong battery life and enhance safety through self-repair mechanisms. Then, flexible gels are explored for their mechanical flexibility, making them suitable for wearable devices and flexible electronics. In addition, biomimetic gels inspired by natural designs are introduced for high-performance AMBs. Furthermore, biomass materials gels are presented, derived from natural biomaterials, offering environmental friendliness and biocompatibility. Finally, the perspectives and challenges for future developments are discussed in terms of enhancing the ionic conductivity, mechanical strength, and environmental stability of novel gel materials. The review underscores the significant contributions of these QSGEs in enhancing AMBs performance, including increased lifespan, safety, and adaptability, providing new insights and directions for future research and applications in the field.