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Quasi‐solid sodium batteries, employing quasi‐solid polymer electrolytes (QSPEs) renowned for their high energy density and cost‐effective fabrication, are promising candidates for next‐generation energy storage systems. However, their practical application has encountered impediments such as insufficient ion transport and uneven sodium plating/stripping attributed to suboptimal interfacial compatibility. In this work, an innovative QSPE is developed by incorporating functional additives, specifically fluoroethylene carbonate (FEC) and tin trifluoromethanesulfonate (Sn(OTf)2), into the poly(vinylidenefluoride‐co‐hexafluoropropylene) (PVDF‐HFP)/propylene carbonate (PC) polymer electrolyte. Sn(OTf)2 catalyzes a ring‐opening reaction in PC, thereby reducing transmission barriers and augmenting the transport of sodium ions. Consequently, the resulting HFP‐PC‐FEC‐Sn QSPE demonstrates remarkable ionic conductivity (0.42 mS cm─1) and ion transference number (0.58). Furthermore, it forms a dense and smooth interphase enriched with NaF and metallic Sn, significantly enhancing the long‐term cycling stability of Na symmetric cells, which endure over 3000 h at 0.2 mA cm─2, and effectively suppressing the formation of sodium dendrites. This outstanding electrochemical performance extends to Na3V2(PO4)3/Na full coin and pouch cells across a wide temperature range. This work introduces an innovative approach for designing high‐performance QSPEs suitable for wide‐temperature quasi‐solid sodium batteries. [ABSTRACT FROM AUTHOR]

Chondrocytes, the resident cells of articular cartilage, play a vital role in tissue maintenance and regeneration. Recent studies have highlighted chondrocyte senescence as a key contributor to cartilage dysfunction. In this study, we investigated the influence of substrate stiffness on chondrocyte senescence using polydimethylsiloxane (PDMS) substrates with varying stiffness ratios (1:5, 1:20, and 1:60). After culturing chondrocytes on these substrates, we found that softer substrates (1:60) significantly reduced chondrocyte senescence, as evidenced by a decrease in senescence‐associated β‐galactosidase (SA‐β‐gal) activity by 33% compared with stiffer substrates (1:5). Furthermore, quantitative real‐time polymerase chain reaction (PCR) analysis revealed that chondrocytes cultured on softer substrates exhibited lower expression levels of senescence‐related genes (e.g., p16INK4a) and matrix‐degrading enzymes (e.g., MMP13). These findings suggest that substrate stiffness plays a critical role in regulating chondrocyte senescence and could potentially inform the design of scaffolds for cartilage tissue engineering. [ABSTRACT FROM AUTHOR]

A twice‐input variable‐resolution single‐side switching scheme without reset energy is proposed for successive approximation register (SAR) analogue‐to‐digital converters (ADCs). The proposed switching scheme is based on semi‐resting DAC technology to design a four‐array architecture capable of handling twice the swing of the signal input while reducing the capacitor array size. The technique of top‐plate sampling and monotonic shift is utilized so that no switching energy is generated for the first three comparisons. The proposed scheme utilizes full‐capacitor split, bridged switch, and C‐2C dummy capacitor technology, which reduces average switching energy consumption by 99.8% compared to conventional schemes and enables ADC variable resolution function, making the SAR ADC more suitable for IoT applications. [ABSTRACT FROM AUTHOR]

Objectives: We aimed to evaluate the changes in renal cortical microperfusion and quantitative contrast‐enhanced ultrasonography (CEUS) parameters after kidney transplantation, and to determine the evidence‐based value of CEUS in predicting renal dysfunction. Methods: The Embase, MEDLINE, Web of Science, and Cochrane Library databases were searched for relevant studies published from 2000 to 2023 on the use of CEUS to assess the renal cortical microcirculation after kidney transplantation. Subject terms and related keywords were combined, and a meta‐analysis and systematic review were performed according to the Preferred Reporting Items for Systematic reviews and Meta‐Analyses guidelines. Results: The search yielded six studies involving 451 patients with moderate to high overall quality. The peak intensity (standardized mean difference [SMD]: −0.64, 95% confidence interval [CI] −1.13 to −0.15, p = 0.01) of CEUS was significantly lower in patients with renal dysfunction than in those with stable renal function. However, the time to peak (SMD: 0.28, 95% CI 0.04 to 0.52, p = 0.02) was significantly shorter in patients with renal dysfunction than in those with stable renal function. The total renal cortical microperfusion and renal cortical perfusion intensity were decreased, and the perfusion time was prolonged, in patients with renal dysfunction after kidney transplantation. Conclusion: CEUS parameters can reflect real‐time changes in renal cortical microperfusion, thus providing a basis for the early diagnosis of renal dysfunction after kidney transplantation. [ABSTRACT FROM AUTHOR]

The sensitive and rapid detection of thermal neutrons holds significant importance in various fields such as energy utilization, medical treatment, and national defense. However, the available thermal neutron scintillator is difficult to reach this target, mainly limited by the optical and scintillating performance. Herein, the in situ crystallization strategy of glass to construct scintillation glass composites for efficient thermal neutron detection is proposed. The congruent crystallization of the hybridized alkali earth silicate glass system may not only achieve high crystallinity, but also will keep the refractive indexing matching between the precipitated crystal and precursor glass phases. The prepared glass composites feature high luminescence efficiency, optical transmission and excellent neutron response properties. These factors collectively contribute to the robust neutron scintillation performance with a light output of ≈36 000 photons/neutron, which represents the highest value among glass‐based scintillators. Moreover, the composite configuration brings about the additional function of thermal neutron and γ‐ray discrimination. By using this composite scintillator, the neutron detector is constructed and demonstrates its application for detecting thermal neutron and distinguishing it from γ‐ray in an online way. The studies prove that glass composites with high crystallinity are expected to be promising candidates for a new generation of multifunctional neutron detectors. [ABSTRACT FROM AUTHOR]

Skeleton‐based action recognition has received much attention and achieved remarkable achievements in the field of human action recognition. In time series action prediction for different scales, existing methods mainly focus on attention mechanisms to enhance modelling capabilities in spatial dimensions. However, this approach strongly depends on the local information of a single input feature and fails to facilitate the flow of information between channels. To address these issues, the authors propose a novel Temporal Channel Reconfiguration Multi‐Graph Convolution Network (TRMGCN). In the temporal convolution part, the authors designed a module called Temporal Channel Fusion with Guidance (TCFG) to capture important temporal information within channels at different scales and avoid ignoring cross‐spatio‐temporal dependencies among joints. In the graph convolution part, the authors propose Top‐Down Attention Multi‐graph Independent Convolution (TD‐MIG), which uses multi‐graph independent convolution to learn the topological graph feature for different length time series. Top‐down attention is introduced for spatial and channel modulation to facilitate information flow in channels that do not establish topological relationships. Experimental results on the large‐scale datasets NTU‐RGB + D60 and 120, as well as UAV‐Human, demonstrate that TRMGCN exhibits advanced performance and capabilities. Furthermore, experiments on the smaller dataset NW‐UCLA have indicated that the authors' model possesses strong generalisation abilities. [ABSTRACT FROM AUTHOR]

Alzheimer's disease (AD) is a neurodegenerative disorder characterized by complex pathogenesis mechanisms. Among these, β‐amyloid plaques and hyperphosphorylated Tau protein tangles have been identified as significant contributors to neuronal damage. This study investigates thonningianin A (TA) from Penthorum chinense Pursh (PCP) as a potential inhibitor targeting these pivotal proteins in AD progression. The inhibitory potential of PCP and TA on Aβ fibrillization was initially investigated. Subsequently, ultra‐high performance liquid chromatography‐quadrupole time‐of‐flight tandem mass spectrometry and biolayer interferometry were employed to determine TA's affinity for both Aβ and Tau. The inhibitory effects of TA on the levels and cytotoxicity of AD‐related proteins were then assessed. In 3xTg‐AD mice, the therapeutic potential of TA was evaluated. Additionally, the molecular interactions between TA and either Aβ or Tau were explored using molecular docking. We found that PCP‐total ethanol extract and TA significantly inhibited Aβ fibrillization. Additionally, TA demonstrated strong affinity to Aβ and Tau, reduced levels of amyloid precursor protein and Tau, and alleviated mitochondrial distress in PC‐12 cells. In 3xTg‐AD mice, TA improved cognition, reduced Aβ and Tau pathology, and strengthened neurons. Moreover, molecular analyses revealed efficient binding of TA to Aβ and Tau. In conclusion, TA, derived from PCP, shows significant neuroprotection against AD proteins, highlighting its potential as an anti‐AD drug candidate. [ABSTRACT FROM AUTHOR]

Neutrons are widely used in national defense, security, and medical health fields. It is critical to realize neutron detection with high efficiency. The most popular neutron detection scintillators such as lithium glass and 6LiF/ZnS:Ag screen exhibit insurmountable limitations: the former usually has relatively rather low light yield and latter is opaque. In this research, we report the successful construction of the novel full inorganic composite scintillators by low temperature co‐firing technology. The composite scintillator is derived from the ZnS:Ag and borate glass matrix, and it shows better transparency compared with the standard 6LiF/ZnS:Ag screen. It exhibits excellent scintillation properties with the X‐ray induced emission intensity of these composite scintillators reaching approximately 2.46 times of the standard Bi4Ge3O12 (BGO) crystal. The light output under thermal neutron excitation can reach 75 000 photons/neutron. In addition, it presents excellent neutron detection performance with natural abundance of 10B isotope. Our research findings can serve as a valuable reference for the advancement of robust neutron detection materials, particularly in the domain of ZnS:Ag‐based full inorganic scintillator for neutron detection. [ABSTRACT FROM AUTHOR]

All‐solid‐state lithium metal batteries (ASSLMBs) with solid electrolytes (SEs) have emerged as a promising alternative to liquid electrolyte‐based Li‐ion batteries due to their higher energy density and safety. However, since ASSLMBs lack the wetting properties of liquid electrolytes, they require stacking pressure to prevent contact loss between electrodes and SEs. Though previous studies showed that stacking pressure could impact certain performance aspects, a comprehensive investigation into the effects of stacking pressure has not been conducted. To address this gap, we utilized the Li6PS5Cl solid electrolyte as a reference and investigated the effects of stacking pressures on the performance of SEs and ASSLMBs. We also developed models to explain the underlying origin of these effects and predict battery performance, such as ionic conductivity and critical current density. Our results demonstrated that an appropriate stacking pressure is necessary to achieve optimal performance, and each step of applying pressure requires a specific pressure value. These findings can help explain discrepancies in the literature and provide guidance to establish standardized testing conditions and reporting benchmarks for ASSLMBs. Overall, this study contributes to the understanding of the impact of stacking pressure on the performance of ASSLMBs and highlights the importance of careful pressure optimization for optimal battery performance. [ABSTRACT FROM AUTHOR]

This study investigates NaY9Si6O26 ceramics prepared through the solid‐phase method, focusing on their microwave dielectric properties and crystallographic characteristics. X‐ray diffraction analysis reveals a hexagonal crystal structure for NaY9Si6O26 ceramics within the P63/m (176) space group. Rietveld refinement analysis precisely determines the lattice constants as a = b = 9.3423 Å, c = 6.7524 Å, and a unit cell volume of V = 510.3877 Å3. Additionally, Raman spectroscopy unveils a noteworthy correlation between the quality factor and the full width at half maximum of the A1g(O) mode at 878 cm−1. The structural attributes, including lattice fringes and diffraction patterns of hexagonal NaY9Si6O26 ceramics, are elucidated through transmission electron microscopy. Of significance are the microwave dielectric properties of NaY9Si6O26 ceramics sintered at 1465°C, revealing a relative permittivity (εr) of 10.42, an impressive Q × f product of 33 766 GHz (at f = 11.14 GHz), and a temperature coefficient of resonant frequency (τf) of −28.7 ppm/°C. This comprehensive investigation contributes to the understanding of both the structural and microwave dielectric characteristics of NaY9Si6O26 ceramics, with potential applications in advanced electronic devices. [ABSTRACT FROM AUTHOR]

Background: Left ventricular hypertrophy (LVH) is highly prevalent in haemodialysis (HD) patients and is associated with an increased risk of death. Roxadustat and recombinant human erythropoietin (rHuEPO, abbreviated as EPO) are the main treatment strategies for renal anaemia in HD patients, but it has not been clear whether there is a difference in their effect on LVH. Methods: In this multi‐centre, prospective, randomized trial of 12‐month duration, study participants were randomized in a 1:1 ratio to the roxadustat group or the EPO group. The doses of both treatment regimens were adjusted so that the patients had a haemoglobin level of 10.0–12.0 g per dL. The primary study endpoint was the change from baseline to 12 months in the left ventricular mass index (LVMI, g/m2) measured by echocardiography. Results: In total, 114 patients were enrolled. The mean age was 50 years, and the median dialysis duration was 33 months. Sixty‐one patients were men, and 24 were diabetic. LVMI decreased from 116.18 ± 27.84 to 110.70 ± 25.74 g/m2 in the roxadustat group. However, it increased from 109.35 ± 23.41 to 114.99 ± 28.46 g/m2 in the EPO group, with a significant difference in the change in LVMI between the two groups [−5.48 (−11.60 to 0.65) vs. 5.65 (0.74 to 10.55), p < 0.05]. Changes in left ventricular mass, end‐diastolic volume and 6‐min walk test seemed superior in the roxadustat group. There were no significant differences in other cardiac geometry, biochemical parameters and major adverse cardiovascular events between the two groups. Conclusions: Compared to EPO, roxadustat is more helpful in the regression of LVH in HD patients. [ABSTRACT FROM AUTHOR]

As an excellent representative of all‐inorganic perovskite materials, CsPbBr3 has been widely used in high‐energy rays or high‐energy particles detection for its outstanding high carrier mobility and long diffusion length. The great challenges and opportunities in these fields are crystal growth technology, especially the high‐quality and large‐sized CsPbBr3 single crystals. In this work, the influences of growth parameters (temperature gradient, growth rate, cooling rate) and thermal stress by the vertical Bridgman method on the quality and performance of CsPbBr3 crystals are systematically studied. The final results show that 10°C cm−1 is the optimized temperature gradient and 0.5 mm h−1 is the suitable growth rate for CsPbBr3 crystal growth. The study also shows that a cooling rate of 10°C h−1 for the general temperature interval and 1°C h−1 for the phase transition temperature interval is helpful to balance crystal growth efficiency as well as crystal quality. Crystal cracks caused by thermal stress as well as crystal adhesion on the ampoule can be effectively solved by depositing a uniform carbon film on the ampoule in advance. The optical, electrical and detection performance are also investigated. The optical characterization in the wavelength region ranging from ultraviolet to infrared indicates the crystal has a low density of deep‐level defects and good crystal quality. The resistivity over 109 Ω cm and μτ of electrons over 10−2 cm−2 V−1 proves that the electrical performance of the crystal has met the basic requirement for nuclear radiation detection. The metal–semiconductor–metal structure Ti/Ni/CsPbBr3/Ni/Ti detector fabricated from the optimized CsPbBr3 single crystal has an energy resolution of 12.85% (137Cs, 662 keV). The purpose of this work is to provide a useful guide and reference for the future exploration of repeatable and improvable CsPbBr3 crystal growth technology. [ABSTRACT FROM AUTHOR]

Here, a spectrally selective solar absorber is explored and an ultra‐broadband solar absorber is proposed based on pyramidal structure. The finite‐difference in time domain (FDTD) software is used to model the spectral characteristics and magnetic absorption patterns of this absorber. The emissivity of the absorber is less than 20% in the far‐infrared band over 6000 nm, showing good selectivity, and the total solar thermal conversion efficiency is very close to that of an ideal truncated selective solar absorber by analyzing the performance of our proposed absorber‐related indexes. By studying the high absorption band of the absorber, the selectivity can be better investigated in depth. Here, 200–4000 nm is chosed as the depth study band. The absorber possesses an ultra‐wide bandwidth of 3554 nm and an average absorption of over 97.4%, and in the 200–3754 nm band, the absorber has an ultra‐high absorption rate of more than 98.3%, and its thermal emitter has a high emission efficiency of 94% at a temperature of 1000 K. Notably, the weighted average absorption in the 280–4000 nm band at AM1.5 is as high as 98.86%, with a loss of only 1.14%. The ultra‐broadband absorption property of this solar absorber is mainly a joint effect of surface plasmon resonance coupling. [ABSTRACT FROM AUTHOR]

Interindividual variation of human immunodeficiency virus (HIV) RNA setpoint in cerebrospinal fluid (CSF) and its determinants are poorly understood, but relevant for HIV neuropathology, brain reservoirs, viral escape, and reseeding after antiretroviral interruptions. Longitudinal multicentric study on demographic, clinical, and laboratory correlates of CSF HIV RNA in 2000 follow‐up visits from 597 people with HIV (PWH) off antiretroviral therapy (ART) and with plasma HIV RNA > the lower limit of quantification (LLQ). Factors associated with CSF control (CSFC; CSF HIV RNA < LLQ while plasma HIV RNA > LLQ) and with CSF/plasma discordance (CSF > plasma HIV RNA > LLQ) were also assessed through mixed‐effects models. Posthoc and sensitivity analyses were performed for persistent CSFC and ART‐naïve participants, respectively. Over a median follow‐up of 2.1 years, CSF HIV RNA was associated with CD4+ and CD8+ T cells, CSF leukocytes, blood–brain barrier (BBB) integrity, biomarkers of iron and lipid metabolism, serum globulins, past exposure to lamivudine, and plasma HIV RNA (model p < 0.0001). CSFC (persistent in 7.7% over 3 years) and CSF/plasma discordance (persistent in <0.01% over 1 year) were variably associated with the same parameters (model p < 0.001). Sensitivity analyses confirmed most of the previous associations in participants never exposed to ART. Persistent CSFC was associated with higher CD4+ T‐cell count nadir (p < 0.001), lower serum globulins (p = 0.003), and lower CSF leukocytes (p < 0.001). Without ART, one in 13 PWH had persistently undetectable CSF HIV RNA, while persistent CSF/plasma discordance was extremely rare over years. Immune responses, inflammation, BBB permeability, and iron and lipid metabolism were all associated with HIV replication in CSF. [ABSTRACT FROM AUTHOR]

The practical implementation of garnet‐type solid electrolytes, such as Li6.4La3Zr1.4Ta0.6O12 (LLZTO), faces the significant challenge of Li dendrites. Though artificial interfacial strategies are effective in dendrite suppression, further investigation is needed to understand the mechanism of homogeneous Li deposition and its practicability under real‐world conditions. Herein, a bilayer interface is constructed to address these issues. Such a bilayer interface consists of one conformal Li2O‐rich layer, generated by rubbing LLZTO pellets inside molten Li with low‐dose In2O3, and another Li2O layer deposited through atomic layer deposition (ALD). The regulatory effect of the initial Li2O‐rich layer on achieving uniform Li deposition is explored, and the critical current density is enhanced to 2.4 mA cm−2. However, simple interfacial strategy is insufficient to prevent anodic degradation for cycling at room temperature without stack pressure, leading to increased current leakage and directly reducing Li+ within the electrolyte. After insulating it with a second ALD‐Li2O layer that minimally hampers ionic conduction, the Li/Li symmetric cells achieve long cycling life exceeding 1000 h at 0.5 mA cm−2 and maintain stable operation even at 2 mA cm−2. This work provides valuable insights for interfacial strategies towards practical solid‐state batteries. [ABSTRACT FROM AUTHOR]

Background: Psoriasis is an immune‐mediated chronic inflammatory skin disease. Great progress has been made in the pathogenesis of psoriasis in recent years, but there is no bibliometric study on the pathogenesis of psoriasis. The purpose of this study was to use bibliometrics method to analyze the research overview and hot spots of pathogenesis of psoriasis in recent 10 years, so as to further understand the development trend and frontier of this field. Methods: The core literatures on the pathogenesis of psoriasis were searched in the Web of Science database, and analyzed by VOSviewer, CiteSpace, and Bibliometrix in terms of the annual publication volume, country, institution, author, journal, keywords, and so on. Results: A total of 3570 literatures were included. China and the United States were the main research countries in this field, and Rockefeller University was the main research institution. Krueger JG, the author, had the highest number of publications and the greatest influence, and Boehncke (2015) was the most cited local literature. J INVEST DERMATOL takes the top spot in terms of the number of Dermatol articles and citation frequency. The main research hotspots in the pathogenesis of psoriasis are as follows: (1) The interaction between innate and adaptive immunity and the related inflammatory loop dominated by Th17 cells and IL‐23/IL‐17 axis are still the key mechanisms of psoriasis; (2) molecular genetic studies represented by Long Non‐Coding RNA (LncRNA); (3) integrated research of multi‐omics techniques represented by gut microbiota; and (4) Exploring the comorbidity mechanism of psoriasis represented by Metabolic Syndrome (MetS). Conclusion: This study is a summary of the current research status and hot trend of the pathogenesis of psoriasis, which will provide some reference for the scholars studying the pathogenesis of psoriasis. [ABSTRACT FROM AUTHOR]

Solid‐state sodium batteries have garnered considerable interest. However, their electrochemical performance is hampered by severe interfacial resistance between sodium metal and inorganic solid electrolytes, as well as Na dendrite growth within the electrolytes. To address these issues, a uniform and compact SnF2 film is first introduced onto the surface of the inorganic solid electrolyte Na3.2Zr1.9Ca0.1Si2PO12 (NCZSP) to improve contact through an effective and straightforward process. Through experiments and computations, the in situ conversion reaction between SnF2 and molten Na is adequately confirmed, resulting in a composite conductive layer containing NaxSn alloys and NaF at the interface. As a result, the interfacial resistance of Na/NCZSP is significantly decreased from 813 to 5 Ω cm2, and the critical current density is dramatically increased to 1.8 mA cm−2, as opposed to 0.2 mA cm−2 with bare NCZSP. The symmetric cell is able to cycle stably at 0.2 mA cm−2 for 1300 h at 30 °C and exhibits excellent current tolerance of 0.3 and 0.5 mA cm−2. Moreover, the Na3V2(PO4)3/SnF2‐NCZSP/Na full cell displays excellent rate performance and cycling stability. The SnF2‐induced interlayer proves significant in improving interfacial contact and restraining sodium dendrite propagation, thus promoting the development of solid‐state sodium batteries. [ABSTRACT FROM AUTHOR]

Li6PS5Cl (LPSC) solid electrolytes, based on Argyrodite, have shown potential for developing high energy density and safe all‐solid‐state lithium metal batteries. However, challenges such as interfacial reactions, uneven Li deposition, and air instability remain unresolved. To address these issues, a simple and effective approach is proposed to design and prepare a solid electrolyte with unique structural features: Li6PS4Cl0.75‐OF0.25 (LPSC‐OF0.25) with protective LiF@Li2O nanoshells and F and O‐rich internal units. The LPSC‐OF0.25 electrolyte exhibits high ionic conductivity and the capability of "killing three birds with one stone" by improving the moist air tolerance, as well as the interface compatibility between the anode or cathode and the solid electrolyte. The improved performance is attributed to the peculiar morphology and the self‐generating and self‐healing interface coupling capability. When coupled with bare LiCoO2, the LPSC‐OF0.25 electrolyte enables stable operation under high cutoff voltage (≈4.65 V vs Li/Li+), thick cathodes (25 mg cm−2), and large current density (800 cycles at 2 mA cm−2). This rationally designed solid electrolyte offers promising prospects for solid‐state batteries with high energy and power density for future long‐range electric vehicles and aircrafts. [ABSTRACT FROM AUTHOR]

Flame retardant treatment of epoxy resins (EP) to reduce their flammability for extending their range of applications attracts considerable attention. However, the synthesis process of conventional flame retardants is complicated and involves organic hazardous solvents. Meanwhile, how to ensure both the flame‐retardant and mechanical properties is a long‐standing and actual difficult problem. In this work, a supramolecular flame retardant (named ATPFR) is facilely created by one‐pot reaction, using cheap and accessible raw materials in an ecologically benign aqueous solvent. ATPFR is applied to improve the fire safety of EP. With only 5 wt% ATPFR addition, EP can reach the limiting oxygen index of 28.5% and the UL‐94 V‐0 rating with a significant "blow‐out effect." The cone calorimetry test reveals that the EP thermoset with 5 wt% ATPFR has a 75.8% reduction in the peak heat release rate (p‐HRR) and a 67.3% reduction in the peak smoke production rate (p‐SPR), respectively, compared with the pure EP. Additionally, EP composites with the small amount of ATPFR exhibit a slight decrease and maintain good mechanical properties. Therefore, the facile synthesis and application of this supramolecular flame retardant provide a reliable way for the construction of polymer materials with environment‐friendly and effective flame‐retardant system. [ABSTRACT FROM AUTHOR]

Objectives: To describe four endoscopic endonasal subapproaches, namely, the trans‐lamina papyracea, trans‐prelacrimal recess, trans‐Meckel's cave, and transclival approaches for trigeminal schwannomas (TSs). Methods: This retrospective study reviewed the medical records and intraoperative videos of 38 patients with TSs who underwent endoscopic endonasal approach (EEA) between Jan 2013 and Dec 2021. Results: According to Jeong's classification, for TS equally in middle and posterior fossae (MP), a purely trans‐Meckel's cave approach was carried out in 2 cases, and a combined transclival approach was carried out in 4 cases. The four tumors that involved infratemporal fossa (two E3, one mE3, and one Mpe3) were performed via a trans‐prelacrimal recess approach, and type Mpe3 was also assisted by the trans‐Meckel's cave approach. One patient with type E1 was treated with a trans‐lamina papyracea approach. The other 27 cases, including type M, Mp, ME2, and MpE2, were all removed by a purely trans‐Meckel's cave approach. Thirty‐six patients (97.4%) received total resection under a purely EEA. The functional abilities and preoperative symptoms of 31 patients (88.6%) improved. Eight (21.1%) patients experienced permanent neurological function deficits. Postoperative cerebrospinal fluid and intraoperative internal carotid artery injury occurred in 1 (2.6%) patient. Conclusion: According to the specific endoscopic endonasal subapproaches corresponding to the different TS locations, satisfactory results can be obtained for most types of tumors. It represents an effective alternative to the open transcranial approach and can also be properly used in most types of TS with experienced hands. Level of Evidence: 4 Laryngoscope, 133:2564–2571, 2023 [ABSTRACT FROM AUTHOR]

Over the last decades, continuous technological advancements have been made in III‐nitride light‐emitting diodes (LEDs), so that they are considered as a promising replacement of traditional light sources. With the emission wavelength covering the entire visible spectrum, InGaN LEDs find various applications such as solid‐state lightings, full‐color displays, and visible light communication. However, the quantum efficiency of InGaN LEDs suffers from a dramatic decline as the emission wavelength extends from blue to green–red region. This issue restrains the lighting and display applications based on the color‐mixing monolithic lighting source system. In this review, the recent breakthroughs in long‐wavelength InGaN LEDs, together with the challenges and approaches to realize high‐indium‐composition InGaN epilayers, are introduced. These cover the different epitaxial substrates, nucleation layers, and epitaxial structures, especially multiple quantum wells active region. The related studies are also discussed to improve the long‐wavelength LEDs performance from the aspect of crystal quality, growth orientation, carrier‐injection, and 3D nanostructures. Finally, current status and perspectives for future long‐wavelength LEDs development are proposed briefly. [ABSTRACT FROM AUTHOR]

Background/Objectives: Diagnostic criteria for atopic dermatitis (AD) are limited in their performance and/or usability. The American Academy of Dermatology (AAD) consensus criteria include hierarchical categories of disease features to improve these metrics but have not been validated. Our objective was to create and validate a checkbox form of the AAD consensus criteria in the pediatric population. Methods: We performed a cross‐sectional study of 100 pediatric patients with AD (n = 58) and diseases in the differential diagnosis of AD (n = 42). Results: Having three or more "Essential," ≥2 "Important," ≥1 "Associated" features of the AAD criteria was optimal for the diagnosis of AD in children. This combination was 91.4% (95% CI, 84.2%–98.6%) sensitive and 95.2% (88.8%–100%) specific. The UK working party criteria and the Hanifin–Rajka criteria had sensitivities of 96.6% (95% CI 91.9%–100%) and 98.3% (95% CI 94.9%–100%) and specificities of 83.3% (95% CI 72.1%–94.6%) and 71.4% (95% CI 57.8%–85.1%), respectively. The AAD criteria had significantly greater specificity than the Hanifin–Rajka criteria (p =.002). Conclusions: This study represents an important step in validating the AAD consensus criteria and formulating a useable checkbox form for diagnosing AD in the pediatric population. [ABSTRACT FROM AUTHOR]

Sichuan Basin of China is a typical underground brine enrichment area. In order to develop and utilize the brine resource, it is necessary to study the phase equilibria and phase diagram of brine systems. In this work, the phase equilibria of the quinary system NaCl + KCl + MgCl2 + SrCl2 + H2O (saturated with NaCl) at 308.2 K of the underground brines in Sichuan Basin are measured experimentally by isothermal dissolution equilibrium method. The phase diagram, water content diagram, and sodium chloride content change diagram of the quinary system with NaCl saturated are also drawn, respectively. The results show that the phase diagram of the quinary system contains three invariant points, seven isothermal solubility curves, and five solid crystal zones at 308.2 K. In the phase diagram, the KCl crystallization area is the largest, followed by SrCl2·6H2O, KCl·MgCl2·6H2O, and SrCl2·2H2O, while MgCl2·6H2O has the smallest crystallization area. Magnesium chloride in the quinary system has the largest solubility and has strong salting‐out effect on other salts. Furthermore, the unreported mixed ion interaction parameters θMg, Sr and ΨMg, Sr, Cl of Pitzer model are fitted, respectively. Consequently, the solubilities of the quinary system NaCl + KCl + MgCl2 + SrCl2 + H2O at 308.2 K are predicted using the Pitzer model, and the calculated phase diagram at 308.2 K is also plotted in detail. The predicted solubilities of the quinary system were in good agreement with the experimental solubilities. Finally, the study on the phase equilibrium of the quinary system can provide phase equilibrium data for the development and utilization of liquid mineral resources. [ABSTRACT FROM AUTHOR]

The accuracy of radar emitter signal sorting nowadays deteriorates due to the high flexibility and complexity of modern radar pulse streams and the density of crowded electromagnetic environment. In modern radar signal sorting based on pulse repetition interval, conventional methods usually fail to achieve acceptable accuracy and lack stable performance for two main reasons: (1) Conventional methods require a large number of pulses in the stream, which is not practical in many applications. (2) These methods are sensitive to pulse loss and random noise pulses. These two reasons are the main problem that is addressed in this paper. Our proposed model is a machine learning architecture called Unified Residual Recurrent Neural Network (URRNN). In this architecture, residual neural network and recurrent neural network are combined and modified to alleviate the forementioned shortcomings of traditional approaches and enhance the model performance in both classification and deinterleaving tasks. This aim is achieved due to the fact that URRNN extracts both spatial and temporal features, which means more information about processed stream that is exploited to enhance model performance. Three different architectural combinations of URRNN, which show high accuracy and reasonable processing time, are built and trained. The structural and functional description are provided for each architecture. Simulation demonstrates high accuracy and reliable performance of the proposed methods in different circumstances. The results are compared with the results obtained by other conventional machine learning techniques. [ABSTRACT FROM AUTHOR]

The uniquely tunable nature of covalent organic frameworks (COFs), whose pore size and stability can be controlled by choosing diverse organic building blocks and linkage types, makes COFs potential candidates for the membrane separation. Therefore, the preparation of membranes with effective separation efficiency based on COFs has aroused great interest among researchers. Although solvothermal approach has been the most popular method for the preparation of COF membranes, fabricating COF membranes at room temperature (RT) will provide a simple and captivating strategy for separation membranes. Herein, a P‐COF membrane on porous alumina substrate at RT, showing 99.7% rejection of rhodamine B and excellent water permeance up to 52 L m−2 h−1 bar−1, which can effectively purify wastewater is successfully obtained. P‐COF is directly grown on alumina to form the composite membrane, which enhances the mechanical strength of COF membrane and avoids the risk of damaging the membrane structure during the transfer process of self‐standing membrane. Moreover, P‐COF membrane is grown at RT, which is more energy efficient than the conventional solvothermal method. Thus, it is of great significance to obtain COF membranes with excellent nanofiltration performance in a simple and mild condition to alleviate environmental and energy concerns. [ABSTRACT FROM AUTHOR]

Background: HCFC1 encodes transcriptional co‐regulator HCF‐1, which undergoes an unusual proteolytic maturation at a centrally located proteolysis domain. HCFC1 variants were associated with X‐linked cobalamin metabolism disorders and mental retardation‐3. This study aimed to explore the role of HCFC1 variants in common epilepsy and the mechanism underlying phenotype heterogeneity. Methods: Whole‐exome sequencing was performed in a cohort of 313 patients with idiopathic partial (focal) epilepsy. Functional studies determined the effects of the variants on the proteolytic maturation of HCF‐1, cell proliferation and MMACHC expression. The role of HCFC1 variants in partial epilepsy was validated in another cohort from multiple centers. Results: We identified seven hemizygous HCFC1 variants in 11 cases and confirmed the finding in the validation cohort with additional 13 cases and six more hemizygous variants. All patients showed partial epilepsies with favorable outcome. None of them had cobalamin disorders. Functional studies demonstrated that the variants in the proteolysis domain impaired the maturation by disrupting the cleavage process with loss of inhibition of cell growth but did not affect MMACHC expression that was associated with cobalamin disorder. The degree of functional impairment was correlated with the severity of phenotype. Further analysis demonstrated that variants within the proteolysis domain were associated with common and mild partial epilepsy, whereas those in the kelch domain were associated with cobalamin disorder featured by severe and even fatal epileptic encephalopathy, and those in the basic and acidic domains were associated with mainly intellectual disability. Conclusion: HCFC1 is potentially a candidate gene for common partial epilepsy with distinct underlying mechanism of proteolysis dysfunction. The HCF‐1 domains played distinct functional roles and were associated with different clinical phenotypes, suggesting a sub‐molecular effect. The distinct difference between cobalamin disorders and idiopathic partial epilepsy in phenotype and pathogenic mechanism, implied a clinical significance in early diagnosis and management. [ABSTRACT FROM AUTHOR]

In this study, Y3−xLaxAl5O12 (0 ≤ x ≤ 0.09) ceramics were synthesized, and the phase composition, lattice evolution, and microwave dielectric properties were investigated in detail. Scanning electron microscopy confirms that the addition of moderate amounts of La2O3 improves the grain development of YAG ceramics, but excessive doping destabilizes the crystal structure. Transmission electron microscopy characterization shows that the variation of the dielectric properties of the samples with x‐value is related to the occurrence of benign dislocation structures caused by modifications in the type and content of the A‐site rare‐earth ions. The variations in relative density, dielectric constant, and quality factor remain basically coordinated. The optimum microwave dielectric properties of La3+ doped YAG samples are exhibited as εr = 10.61, Q × f = 187, 542 GHz, τf = −31.2 ppm/°C when La2O3 is doped at x = 0.015. [ABSTRACT FROM AUTHOR]

Polybutadiene‐based (PB) composite substrates filled with TiO2 and SiO2 ceramics were fabricated in this work. The total content of ceramic components modified by vinyltrimethoxysilane (A171) was fixed at 80 wt.% with TiO2 amount varying from zero to 8 wt.%. The differences of characteristics of ceramic fillers before and after surface modification were analyzed comprehensively and the treated ceramic fillers were uniformly distributed in the polymer matrix. The effects of TiO2 filler addition on the performances of SiO2/PB composite substrates, such as microstructure, moisture absorption, dielectric and thermal properties were also systematically studied. The composite filled with 4 wt.% TiO2 and 76 wt.% SiO2 exhibited excellent dielectric properties with proper dielectric constant (ϵr=3.2), ultra‐low dielectric loss (tanδ=0.0017) at 10 GHz and a near‐zero τϵ (0.5 ppm/°C) was obtained at filler content of 8 wt.% TiO2 and 72 wt.% SiO2. [ABSTRACT FROM AUTHOR]

Fusobacterium nucleatum infection plays vital roles in colorectal cancer (CRC) progression. Overexpression of microRNA‐4717‐3p (miR‐4717) was reported to be upregulated in F. nucleatum positive CRC tissues, however, the underlying mechanism is unknown. In this study, we found that miR‐4717 promoted CRC cell proliferation in vitro and growth of CRC in vivo following F. nucleatum infection. MicroRNA‐4717 suppressed the expression of mitogen‐activated protein kinase kinase 4 (MAP2K4), a tumor suppressor, by directly targeting its 3′‐UTR. Furthermore, we confirmed that methyltransferase‐like 3 (METTL3)‐dependent m6A methylation could methylate primary (pri)‐miR‐4717, which further promoted the maturation of pri‐miR‐4717, and METTL3 positively regulated CRC cell proliferation through miR‐4717/MAP2K4 pathways. In conclusion, F. nucleatum‐induced miR‐4717 excessive maturation through METTL3‐dependent m6A modification promotes CRC cell proliferation, which provides a potential therapeutic target and diagnostic biomarker for CRC. [ABSTRACT FROM AUTHOR]

Neuromorphic visual sensory and memory systems that can sense, learn and memorize optical information have great potential in many areas such as image recognition and autonomous driving. However, most current artificial neuromorphic vision technology is suffering from large power consumptions (>100 pJ per switching), high circuitry complexity, and difficulty in miniaturization due to the physical separation of the optic sensing, processing, and memory units. Here, a photonic neuromorphic device based on WSe2/In2Se3 van der Waals (vdW) heterostructure is developed to meet the requirements of high‐performance photonic synapse devices. Owing to the optically controlled ferroelectric polarization switching, the device shows light‐tunable synaptic functions. For the first time, the light‐stimulated synaptic behavior extends from visible light to short‐wavelength infrared region (up to 1800 nm). Taking advantage of the ultra‐low dark current of the heterojunction, the power consumption of the photonic synapse can be as low as 258 fJ per switching under a bias of −0.1 V, comparable to biological synapses. These findings demonstrate a novel photonic synapse, deepen the understanding of light‐controlled polarization switching in semiconducting ferroelectric materials, and open up new application fields in multifunctional electronic and photonic devices based on 2D ferroelectric vdW heterostructures. [ABSTRACT FROM AUTHOR]

Comprehensive Summary: Three‐dimensional (3D) covalent organic frameworks (COFs) are crystalline porous polymers with potential in numerous high‐tech applications, but the linkages involved in their synthesis are still rather limited. Herein, we report novel 3D sp2 carbon‐linked COFs fabricated by the formation reaction of C=C bonds and their application in fluorescence imaging. These new COFs, namely JUC‐580 and JUC‐581, show high stability and excellent light‐emitting properties in solid state and dispersed in various solvents. Furthermore, we investigate the potential application of JUC‐581 as a drug carrier combined with fluorescence imaging. These results indicate that 3D sp2 carbon‐linked COFs are not only potential drug‐loaded and sustained release materials but also promising cell fluorescent stains. This study thus expands the structural categories of 3D COFs based on different linkages, and promotes their prospective applications for biomedicine and fluorescent materials. [ABSTRACT FROM AUTHOR]

In this paper, the medium dielectric constant 0.65CaTiO3‐0.35LaAlO3 (CTLA) composite microwave ceramic is employed to introduce in dielectric patch antennas (DPA). Typical, high‐performance microwave dielectric properties of εr ≈ 44.8, Q × f ≈ 43 950 GHz@3.67 GHz and TCF ≈ 0 ppm °C–1 can be obtained by solid‐state reaction method in CTLA composite microwave ceramics sintered at 1450 °C for 2 h. Then, the CTLA composite ceramic patch fired with silver coating is mounted on the Rogers RO4003C substrate operating as a magnetic wall boundary. A simplified cavity‐like theoretical model is used to analyze the proposed DPA structure and the accuracy of this antenna model is evaluated by the theoretical results from a commercial CST Microwave Studio 2019. Based on this, the CTLA composite ceramic physical property is modified to enhance the radiation efficiency and reduce profile of the DPA. The higher‐order TM121 mode is brought close to the dominant TM101 mode by taking advantage of the multimode characteristics of the dielectric patch resonator and introducing a sintered silver slot in the ceramic dielectric patch. For demonstration, the proposed DPA prototype operating in the multiprobe antenna near the field measurement system is implemented and measured. [ABSTRACT FROM AUTHOR]

The stratification of blubber fatty acids (FAs) is a widely used strategy in marine mammals and can be influenced by many factors, including their diet, environmental temperature, and physiological status. There are 3 distinct finless porpoise species/subspecies in Chinese coastal and inland waters in a wide range from 20°N to 40°N. The biochemical stratification of the blubbers of finless porpoises in different regions may provide valuable information for understanding their environmental adaptations. The FA compositions of 4 geographic populations of finless porpoise (FP) collected from the Bohai Gulf, East China Sea, South China Sea, and Yangtze River were therefore analyzed and compared. The blubber FA compositions of finless porpoises were dominated by ΣMUFAs, followed by ΣSFAs and ΣPUFAs, and were generally consistent with those of other cetaceans. The blubber of finless porpoises was significantly stratified with increasing levels of ΣMUFAs and decreasing levels of ΣSFAs and ΣPUFAs from the inner to the outer layers. The 3 marine populations shared more similarities in their FA compositions and stratifications compared to the freshwater porpoises, particularly regarding the PUFAs in the inner layers, which might have been mainly influenced by the diet compositions of marine and freshwater porpoises. Contrary to what was expected, in the 3 marine populations, the SFA and MUFA levels showed opposite correlations (negative and positive, respectively) with habitat temperatures, possibly indicating an adaptation mechanism in finless porpoises characterized by a trade‐off between the insulation and fluidity properties of the blubber through the adjustment of the compositions and gradients of MUFAs and SFAs across the blubber depth in response to environmental temperature/latitude changes. [ABSTRACT FROM AUTHOR]

Objective: This study aimed to recapitulate the change trajectory of postoperative weight and investigate the association between postoperative hypothalamic damage and weight gain and hypothalamic obesity (HO) in patients with adult‐onset craniopharyngioma. Methods: The data of 96 patients with surgically treated primary adult‐onset craniopharyngioma were retrospectively analyzed. The association between postoperative hypothalamic damage based on magnetic resonance images or endoscopic observation and postoperative weight gain and HO was determined by multivariable logistic regression. Results: Forty‐seven (49.0%) patients and 18 (18.8%) patients experienced clinically meaningful weight gain (≥5%) and HO at last follow‐up, respectively. Postoperative weight significantly increased during the first 6 months following surgery, followed by stabilization. Both grade 2 postoperative hypothalamus damage, as evaluated by the magnetic resonance imaging classification system of Müller et al., and higher scores based on the Roth et al. hypothalamic lesion score were significantly associated with postoperative weight gain of ≥5% (p = 0.005 and p = 0.002) and with HO (p = 0.001 and p = 0.008). Additionally, bilateral hypothalamic injury as evaluated by the Hong et al. hypothalamic injury pattern based on endoscopic observation (p = 0.008) could predict postoperative weight gain ≥5%. Conclusions: Significant postoperative weight gain is common in patients with adult‐onset craniopharyngioma. Postoperative hypothalamic damage can predict clinically meaningful weight gain and HO. [ABSTRACT FROM AUTHOR]

Extreme persistent rainfall poses serious impacts on human and natural systems, predominately through its related hydrogeological disasters. Due to sustained heavy downpours, the summer of 2020 was the second wettest on record over Northeast Indian subcontinent since 1901. Here, we find that this orographically anchored extreme rainfall event was largely associated with the anomalous anticyclone (AAC) over the Indo‐Northwest Pacific region and La Niña‐induced Walker circulation intensification. The overall effect of anthropogenic forcings contributed little to the occurrence probability of this event, because the warming and wetting effects of greenhouse gases were almost negated by anthropogenic aerosols. Climate models project a prominent increasing trend of such extreme event under future greenhouse‐induced warming due to increase in atmospheric water vapor and 2020‐like AAC frequency. Our findings thus call for scaling up climate change adaptation efforts for increasingly extreme persistent rainfall in highly populated but low‐resilience South Asian developing countries. Plain Language Summary: Due to windward slope topography and monsoon activities, the populated Northeast Indian subcontinent (NEI) suffers from heavy rainfall and floods almost every year. Extreme persistent downpours lashed NEI in summer 2020, ranked the second heaviest on record since 1901. This event caused about 550 fatalities and economic loss up to hundreds of millions of dollars. It is highly compelling but challenging to understand the weather drivers and future risks of this high‐impact event. Here, we suggested this event was likely caused by the anomalous anticyclone (AAC) over the Indo‐Northwest Pacific region and La Niña‐induced Walker circulation intensification. The overall effect of current human‐induced climate change contributed little to the occurrence probability of this event, as most of the warming and wetting effects of greenhouse gases were canceled out by anthropogenic aerosols. Climate models project an increasing risk of 1.77 (1.97), 2.08 (2.59), 2.58 (3.88), and 3.10 (5.52) times of such extreme event in the median‐term (long‐term) future under SSP1‐2.6, SSP2‐4.5, SSP3‐7.0, and SSP5‐8.5, respectively. It is mainly caused by the increases in atmospheric water vapor and 2020‐like AAC frequency. Our findings indicate that future flooding risk over NEI will increase robustly if greenhouse warming continues. Key Points: Extreme persistent rainfall in boreal summer 2020 over Northeast Indian subcontinent was the second heaviest on record since 1901This event was likely caused by the Northwest Pacific anomalous anticyclone (AAC) and La Niña‐induced Walker circulation intensificationIncreasing 2020‐like rainfall extremes are projected due to increase in future atmospheric water vapor and AAC frequency [ABSTRACT FROM AUTHOR]

Metal‐organic frameworks (MOFs) with the aggregation‐induced emission (AIE) activities exhibit potential applications in the fields of energy and biomedical technology. However, the controllable synthesis of MOFs in the varied particle sizes not only affects their AIE activities, but also restricts their application scenarios. In this work, the varied particle sizes of Eu‐MOFs are synthesized by adjusting the synthesis process parameters, and their variation rules combining the single factor analysis method with machine learning technology are studied. Based on the R2 score, the gradient boosting decision tree (GBDT) regression model (0.9535) is employed to calculate the weight and correlation between different synthesis process parameters and it is shown that all these parameters have synergic effects on the particle sizes of Eu‐MOFs, and the Eu‐precursors concentration dominates in their synthesis process. Furthermore, it is indicated that the large size of Eu‐MOFs and strong structural stability contribute to their high AIE activities. Finally, a screen‐printed pattern is fabricated using the sample of "120–0.3–6," and this pattern exhibits a bright red fluorescence under the UV light. More importantly, this kind of Eu‐MOFs can also be used to identify varied ions (Fe3+, F–, I–, SO42–, CO32–, and PO43–) and citric acid. [ABSTRACT FROM AUTHOR]

Glucose is vital to embryogenesis, as are glucose transporters. Glucose transporter 4 (Glut4) is one of the glucose transporters, which is involved in rapid uptake of glucose by various cells and promotes glucose homeostasis. Although energy metabolism in insect reproduction is well known, the molecular mechanism of Glut4 in insect reproduction is poorly understood. We suspect that Glut4 is involved in maintaining glucose concentrations in the ovaries and affecting vitellogenesis, which is critical for subsequent oocyte maturation and insect fertility. Harmonia axyridis (Pallas) is a model organism for genetic research and a natural enemy of insect pests. We studied the influence of the Glut4 gene on the reproduction and development of H. axyridis using RNA interference technology. Reverse transcription quantitative polymerase chain reaction analysis revealed that HaGlut4 was most highly expressed in adults. Knockdown of the HaGlut4 gene reduced the transcript levels of HaGlut4, and the weight and number of eggs produced significantly decreased. In addition, the transcript levels of vitellogenin receptor and vitellogenin in the fat bodies and the ovaries of H. axyridis decreased after the interference of Glut4, and decreased the triglyceride, fatty acid, total amino acid and adenosine triphosphate content of H. axyridis. This resulted in severe blockage of ovary development and reduction of yolk formation; there was no development of ovarioles in the developing oocytes. These changes indicate that a lack of HaGlut4 can impair ovarian development and oocyte maturation and result in decreased fecundity. [ABSTRACT FROM AUTHOR]

Brown planthopper (Nilaparvata lugens) is one of the important pests that damage rice. Trehalose‐6‐phosphate synthase (TPS) is a key enzyme responsible for catalysing the biosynthesis of trehalose, which is the energy substance of insects. In this study, combined with the reported N. lugens TPS1, TPS2 and newly discovered TPS3, we studied the regulation of TPS in chitin metabolism by RNA interference. Firstly, we found that the relative expression levels of TRE1‐1, TRE1‐2 and TRE2 increased significantly after 48 h of dsTPS3 injection, and the activity of TRE1 enhanced significantly. Secondly, abnormal and lethal phenotypes were observed after dsTPS3 and dsTPSs injection. The relative expression levels of PGM2, G6PI2, Cht1‐4, Cht6‐10 and IDGF decreased significantly after 48 h of dsTPS3 injection. At 72 h after injection of dsTPS3, the relative expression levels of CHS1, Cht2, Cht4, Cht7 and Cht8 reduced significantly, but the expression levels of G6PI1, Cht5 and ENGase increased significantly. The relative expression levels of GFAT, UAP, PGM2, G6PI2, CHS1, CHS1a, CHS1b, Cht2, Cht4, Cht8, Cht9 and Cht10 decreased significantly after 48 h of dsTPSs injection. However, at 72 h after the injection of dsTPSs, the expression levels of GNPNA, UAP, PGM1, G6PI1, HK, CHS1, CHS1a, CHS1b, Cht3, Cht5, Cht7 and ENGase increased significantly. Finally, the chitin content decreased in dsTPS1, dsTPS2 and dsTPSs treatments. In conclusion, the inhibition of TPS expression affected the metabolism of trehalose and chitin in N. lugens. The related research results provide a theoretical basis for pest control. [ABSTRACT FROM AUTHOR]

A substrate integrated suspended line (SISL) gain‐enhanced patch antenna is proposed. Enhanced gain is obtained by a long patch. To suppress the high‐order mode in the anticipated band, a feeding structure is designed with the assistance of characteristic mode analysis. The proposed SISL antenna with the proposed feeding structure suppresses higher‐order modes, achieves good impedance matching and stable broadside gain across the operating frequency band. The antenna has the potential to satisfy wireless local area network (WLAN) application. Measured results show that the 10‐dB impedance bandwidth for the proposed antenna is 18.6% from 4.93 to 5.94 GHz with an average gain of 8.34 dBi. The measured results show great agreement with simulated results. [ABSTRACT FROM AUTHOR]

Solid‐state composite polymer electrolytes (CPEs) have attracted much attention due to their flexibility and low interfacial impedance. Researchers have been improving their ionic conductivity at room temperature, ionic transference number, and (electro)chemical stability. Here, a fiber‐reinforced CPE is prepared by infusing polyethylene oxide (PEO) and Li6.4La3Zr1.4Ta0.6O12 (LLZTO) electrolytes onto polyacrylonitrile (PAN) nanofiber networks. The introduction of both inorganic ceramic filler LLZTO and plasticizer succinonitrile (SN) reduces the crystallinity of PEO, increases the solubility of lithium salts, and further improves ionic transport kinetics. The ionic conductivity of CPE is 2.57 × 10−4 S cm−1 at 30 °C and the lithium‐ion transference number is 0.6. Meanwhile, the high content of LLZTO (60 wt.%) brings a better capability to suppress lithium dendrites, and thus lithium symmetrical cells based on this CPE can be stably cycled for up to 500 h. In addition, the PAN fiber network endows CPE with high mechanical strength and high oxidation resistivity, and accordingly an electrochemical stability window as high as 4.7 V. Both LiFePO4/CPE/Li and LiNi1/3Co1/3Mn1/3O2/CPE/Li cells can be operated at 30 °C for 100 cycles. This work provides a promising strategy for the preparation of thin CPEs for solid‐state lithium metal batteries. [ABSTRACT FROM AUTHOR]

The effects of pressure on the lattice parameters, electronic properties and elastic properties of Sb2S3 under 0–30 GPa are studied by first‐principles calculation. The calculated results of structural parameters of generalized gradient approximation (GGA)‐Perdew–Burke–Ernzerhof (PBE) are less than 3% different from the previous experimental values. With the increase of pressure, the bandgap of Sb2S3 becomes smaller and smaller. At a pressure of 35 GPa, the conduction band coincides with the valence band. Metallization will occur. The Poisson's ratio results show that the Poisson's ratio of Sb2S3 crystal is 0.2892 at 10 GPa. When the pressure increases to 30 GPa, the mechanical stability criterion is no longer satisfied, and the mechanical properties will be unstable. At atmospheric pressure, there is no virtual screen in the phonon dispersion spectrum of Sb2S3. At 30 GPa, the phonon appears virtual screen and the structure is unstable. This is consistent with the results of the previous mechanical stability calculation. Finally, the wave velocity and anisotropy of Sb2S3 are calculated by its elastic coefficients. All the conclusions, herein, can provide a theoretical basis for the future study of Sb2S3 under high pressure. So, it is necessary to study the skills of Sb2S3 under high pressure. [ABSTRACT FROM AUTHOR]

A dual‐mode wideband slotted patch antenna using characteristic mode analysis (CMA) on substrate integrated suspended line (SISL) platform is presented. The proposed antenna combines the fundamental mode (TM01) and a higher‐order mode (TM21) of a rectangular patch to enhance antenna bandwidth. First, detailed studies into the modal significance, far‐field pattern, and current distribution on the potential radiating patch with the assistance of the CMA. The split radiation pattern of the TM21 mode is reshaped into a single directive pattern through slot‐loading techniques on the rectangular patch. The TM21 shifts close to the fundamental mode with similar polarization currents at the short‐edge length of the patch. Full‐wave simulations are performed to verify the CMA report by exciting the TM01 and TM21 modes. The proposed antenna is fabricated and tested. The experimental results agree well with the simulations and show a −10 dB bandwidth of 3.30–3.65 GHz. An average gain and efficiency of more than 7.0 dBi and 86% are accomplished in measurement over the operation band of the ongoing 5G communication. Besides, the antenna exhibits a compact size, low cost, and self‐package characteristics. [ABSTRACT FROM AUTHOR]

An n‐shaped antenna with multimode for wideband application based on substrate integrated suspended line (SISL) platform is presented using characteristic mode analysis (CMA). By exciting three modes simultaneously, a wideband characteristic is achieved. The size of the proposed antenna is 0.74 λ0 × 1.47 λ0 × 0.11 λ0 (where λ0 is the free‐space operating wavelength at the center frequency of 6.205 GHz). The antenna prototype is fabricated and measured. Experimental results show that in the band of 5.1–7.31 GHz, |S11| <−10 dB, and the realized gain is from 5.2 to 9.8 dBi which can be used for WLAN and 5G wireless communication system. [ABSTRACT FROM AUTHOR]

Future projection of temperature extremes in the "Earth's three poles" (the Arctic, Antarctica, and Third Pole‐Tibetan Plateau [TP]) is of importance to risk assessment and policymaking owing to the high sensitivity to climate change in these regions. In this study, future projections of four extreme temperature indices were constructed after the application of a bias correction method in models of Phase 6 of the Coupled Model Intercomparison Project (CMIP6). The reduced intensification of temperature extremes in the Earth's three poles if warming can be limited to 1.5°C instead of 2°C above the pre‐industrial level was examined. Results showed that all the extreme temperature indices show significant increasing trends under both the SSP2–4.5 and SSP5–8.5 scenarios over the Earth's three poles (SSP: Shared Socioeconomic Pathway). For the coldest night (TNn), warmest night (TNx), and warmest day (TXx), the greatest increase by the end of the 21st century under SSP5–8.5 occurs in the Arctic, followed by the TP and finally Antarctica. For the coldest day (TXn), the greatest increase occurs in the Arctic, followed by Antarctica and finally the TP. If global warming can be limited to 1.5°C rather than 2°C, the intensification of TNn, TNx, TXn, and TXx in the Arctic (Antarctica/TP) under SSP5–8.5 is projected to reduce by 66% (21.7%/44.26%), 50.31% (54.79%/60.52%), 71.58% (12.91%/65.81%), and 41.73% (81.3%/57.34%), respectively, and the results are similar for SSP2–4.5. Therefore, keeping a lower warming target is essential for reducing the risk of extreme events in the Earth's three poles. Plain Language Summary: Efforts to understand and project climate change over the Earth's three poles (the Arctic, Antarctica, and Third Pole‐Tibetan Plateau) under global warming scenarios are crucial for risk assessment and policymaking aimed at coping with future climate change. This study reports the future change of four extreme temperature indices over the Earth's three poles based on the observational data sets and outputs from models of Phase 6 of the Coupled Model Intercomparison Project with bias correction. We find that global warming will lead to substantial changes in extreme temperature indices over the Earth's three poles. All the four extreme temperature indices with bias correction show consistent increasing trends under both Shared Socioeconomic Pathway (SSP)2–4.5 and SSP5–8.5 over the Earth's three poles. Although the future changes in extreme temperature indices under a 1.5°C or 2°C warming world are not uniform in space, the risk of temperature extremes over the Earth's three poles is likely to decrease when global warming is limited to 1.5°C instead of 2°C under both SSP2–4.5 and SSP5–8.5. This means that a lower warming target is necessary for reducing the risks of extreme temperature over the three poles. Key Points: All the four extreme temperature indices show consistent increasing trends under both Shared Socioeconomic Pathway (SSP)2–4.5 and SSP5–8.5 in the Earth's three polesThe increase of four extreme temperature indices in the Earth's three poles with global mean temperature is linearA lower warming target is necessary for reducing the risks of extreme temperature over the three poles [ABSTRACT FROM AUTHOR]