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Thriving is believed to occur when employees feel a sense of progress and momentum in the organization. This conceptual basis for thriving is inherently temporal—implying an underlying individual change process—which sets thriving apart from other well‐being criteria in the Human Resource Management literature. However, surprisingly little research has demonstrated and unpacked the change and development processes that lead to thriving. In this article, we develop and test a theoretical model of the dynamic origins of thriving in a socially important context: the aging workforce. Specifically, we propose that older workers thrive when they experience relational spirals: a deepening of the employee‐organization relationship as psychological contracts and role expansion drive each other in a mutually reinforcing spiral. Results from a large‐scale nationally representative longitudinal study of 3370 Australian older workers—spanning 1.5 years and three time points—support the proposed model. Older workers' relational psychological contracts and role expansion formed a mutually reinforcing spiral process over time which ultimately led to higher levels of thriving. These results held even after imposing autoregressive control of lagged variables at earlier time points, and after accounting for the contributions of transactional psychological contracts to the spiral process. Our theorizing and empirical approach brings dynamic processes to the forefront of HR research on thriving, and points to implications for the role of HR in successful aging. [ABSTRACT FROM AUTHOR]

Research findings concerning the effects of perceived overqualification on task performance are mixed. To reconcile the disparate findings, drawing on person‐environment theory, we propose cynicism toward the job and constructive deviance as contrasting dual pathways that explain the negative and positive effects of perceived overqualification on task performance and employee creativity. We also examine the moderating effects of dual‐focused transformational leadership (TFL) on the relationships between perceived overqualification and the two mediating mechanisms. We test this model using data collected from 469 employees and their 135 supervisors via two‐wave surveys. The results support the negative and positive mediating mechanisms. In addition, based on one field study and two online experiments, we find that individual‐focused TFL mitigates the relationship between perceived overqualification and cynicism toward the job, but that team‐focused TFL enhances the relationship between perceived overqualification and constructive deviance. [ABSTRACT FROM AUTHOR]

This study introduces an innovative approach to fabricating a poly ether ketone (PEEK)‐based thin‐film nanocomposite (TFN) nanofiltration membrane. Ultrafine polydopamine (PDA) modified zeolitic imidazolate framework‐8 (ZIF‐8) nanoparticles were integrated into the polyamide (PA) layer through a process of interfacial polymerization. The impacts of PDA@ZIF‐8 nanoparticle loading on composite membranes were examined, and their separation performances with different solvents and small molecular organics with various molecular weights and charges were evaluated. The PDA modification is credited with inducing a thinner, less crosslinked PA layer, culminating in the formation of a selective barrier that is both loose and ultra‐thin, improving the separation capabilities of membranes. The TFN‐3 membrane, with a 0.01 wt% loading of PDA@ZIF‐8 nanoparticles, emerged as a standout, demonstrating notably enhanced hydrophilicity. The pure water and organic solvent permeances through the TFN‐3 membrane were remarkably enhanced, with recorded values of 6.19 ± 0.26 L h−1 m−2 bar−1 for pure water and 3.44 ± 0.21 L h−1 m−2 bar−1 for methanol. Furthermore, the TFN‐3 membrane showcased impressive molecular retention in ethanol solutions for compounds with a molecular weight cut‐off (MWCO) of 464 g/mol. The PEEK‐based TFN‐3 membrane also exhibited exceptional creep resistance, ensuring consistent performance during long‐term testing. In a 5‐day ethanol separation test, the TFN‐3 membrane maintained a Rose Bengal (RB) retention rate exceeding 99%, underscoring its stability and reliability. The newly developed PEEK‐based TFN membrane not only promises robust solvent resistance and stability but also delivers efficient separation and purification capabilities. It holds great potential for offering effective and sustainable solutions across a spectrum of industries, particularly in pharmaceutical production and chemical processing, where the separation, recovery, and purification of solvents are paramount. [ABSTRACT FROM AUTHOR]

Objective: Despite the generally favourable long‐term prognosis of low‐risk differentiated thyroid cancer (DTC), questions remain about disease‐free survival (DFS) after initial treatment, particularly regarding the use of radioactive iodine (RAI). Although there are RCT trial confirming that RAI ablation therapy is not superior to follow‐up in terms of the 3‐year DFS rate in low‐risk thyroid cancer, its longer‐term prognosis remains to be established. The objective of this study was to assess the impact of RAI ablation on the presence of structural persistent/recurrent disease in patients with low‐risk DTC. Methods: We retrospectively identified 720 low‐risk DTC patients who had undergone total or near‐total thyroidectomy (TT) at a tertiary medical centre between January 2008 and July 2018. Propensity scores were calculated using a multivariable logistic regression model that accounted for age, sex, tumour size, neck dissection, multifocality, capsular invasion and lymph node (LN) metastasis. We compared DFS between patients who received RAI and those who did not using log‐rank tests and multivariate Cox analyses. Subgroup analyses were also conducted. Results: Of the total cohort, 180 (25.0%) patients received RAI, while 540 (75.0%) did not before matching. The median follow‐up duration was 59.5 months. After matching, the RAI group comprised 135 (39.8%) patients and the non‐RAI group comprised 204 (60.2%) patients. In the entire cohort, the 5‐year DFS rate was 97.6% for patients receiving RAI compared to 96.8% for those not receiving RAI (p = 0.704). In the matched cohort, the rates were 98.5% and 95.6%, respectively (p = 0.090). Matched multivariate Cox analysis demonstrated that RAI was neither significantly nor independently associated with DFS (hazard ratio [HR] = 0.29; 95% CI 0.06–1.37; p = 0.118). Further subgroup analyses reaffirmed that RAI ablation did not significantly reduce the risk of developing structural persistent/recurrent disease. Conclusion: Administering RAI ablation following TT did not result in improved DFS for low‐risk DTC patients. Our findings suggest that decisions regarding RAI should be made judiciously to avoid overtreatment in this clinical scenario. [ABSTRACT FROM AUTHOR]

Comprehensive Summary: Indolizine is a nitrogen‐containing heterocycle with strong aromaticity, possessing a delocalized 10π‐electron system. Based on the indolizine scaffolds, numerous molecules with biological activity and organic functional materials have been synthesized. Since 2016, over 110 papers have been published on the synthesis of indolizine scaffolds, but the reviews on synthesizing indolizine scaffolds have been incomplete and not up‐to‐date. Herein, from the perspective of the structure of indolizine with the combination of pyrrole and pyridine ring, we focus on the construction of indolizine scaffolds through the diversity of starting substrates, including pyridine derivatives (N1‐substituted pyridinium salt derivatives, C2‐substituted pyridine derivatives, N1‐ and C2‐free substituted pyridine derivatives), pyrrole derivatives and unoriginal ring substrates. Furthermore, the corresponding reaction mechanisms of synthetic methodologies are also elaborated. Therefore, this review not only paves the way for indolizine synthesis but also provides insight into exploring new reaction modes for constructing nitrogen‐containing heterocycles. Key Scientists: Indolizine was discovered by Angeli in 1890 and first prepared by Scholtz in 1912 from α‐picoline and acetic anhydride. A general approach was developed by Chichibabin in 1927, that is of practical value for the preparation of 2‐alkyl‐ or 2‐arylindolizines. The Chichibabin reaction was the ring closure of quaternary pyridinium halides. At the begining of the 21st century, Basavaiah introduced a new dimension in the Baylis‐Hillman chemistry leading to a novel facile convenient methodology for synthesis of indolizine scaffolds in one‐pot operation. In 2010, Barluenga reported Cu(I)‐catalyzed regioselective [3+2] cyclization of unsubstituted pyridines toward alkenyldiazoacetates leading to functionalized indolizine derivatives, that was the first successful example of metal‐catalyzed cyclization of a π‐deficient heterocyclic system with alkenyldiazo compounds. In 2019 and 2022, Xi and Liu exploited the methods of non‐pyridine derivatives as starting materials to synthesize indolizines, respectively. In 2022, Guo developed an environmentally benign electrooxidative approach for constructing formyl‐ and acyl‐substituted indolizines. [ABSTRACT FROM AUTHOR]

Aims: Obesity always leads to profound perturbation of metabolome. Metabolome studies enrich the knowledge on associations between endogenous metabolites and obesity, potentially providing innovative strategies for the development of novel anti‐obesity pharmacotherapy. This study aims to identify an endogenous metabolite that regulates energy expenditure and to explore its application for obesity treatment. Materials and Methods: C57BL/6 mice were fed with a high‐fat and high‐cholesterol (HFC) diet, comprising 60% fat and 1.2% cholesterol, for 12 weeks to induce obesity. Significant metabolites were identified in the livers of both health and obese mice through comparative hepatic metabolomics analysis. Correlation between serum or adipose L‐aspartate level and body weight in obese mice, as well as human body mass index (BMI), was evaluated. In addition, saline or 200 mg/kg L‐aspartate was orally administrated to HFC diet mice and HFC diet‐induced obese mice for 6–7 weeks. Body weight, adipose tissue weight, glucose tolerance and liver damage were assessed to evaluate the effect on obesity prevention and treatment. Comprehensive lab animal monitoring system (CLAMS) and seahorse assay were employed to investigate the regulatory effect of L‐aspartate on energy metabolism in vivo and in vitro, respectively. 3T3‐L1 preadipocytes and murine white adipose tissue (WAT) were utilized to examine the impact of L‐aspartate on adipocyte adipogenesis and lipogenesis and cellular signalling pathway in vitro and in vivo. Results: L‐aspartate, an approved drug for liver injury and chronic fatigue, was identified as an endogenous inducer of energy expenditure. Serum or adipose L‐aspartate levels were found to be negatively correlated with the severity of obesity in both humans and mice. Administration of L‐aspartate to HFC diet mice led to a significant reduction in body weight, with decreases of 14.5% in HFC diet mice and 8.5% in HFC diet‐induced obese mice, respectively. In addition, the treatment improved related metabolic syndrome (Figure 2 and Figure S3). These therapeutics were associated with enhancements in whole‐body energy expenditure and suppression of adipocyte adipogenesis along with activation of Adenosine 5′‐monophosphate‐activated protein kinase (AMPK) signalling pathway. Conclusion: L‐aspartate may serve as a novel endogenous inducer of energy expenditure and suppressor of adipogenesis and lipogenesis along with activation of AMPK, thereby offering a promising therapeutic strategy for obesity prevention and treatment. [ABSTRACT FROM AUTHOR]

The sucrose yield in sugarcane largely depends on stem morphology, including length, diameter and sugar content, making sugarcane stem a key trait in breeding. The "Bainianzhe" variety from Songxi County, Fujian Province, possesses both aerial stems and rhizomes, providing a unique model for studying stem development. We performed a spatiotemporal transcriptomic analysis of the base, middle and apical sections of both aerial stems and rhizomes. The analysis categorized transcriptomes by developmental stage—base, middle and apical—rather than environmental differences. Apical segments were enriched with genes related to cell proliferation, while base segments were linked to senescence and fibrosis. Gene regulatory networks revealed key TFs involved in stem development. Orphan genes may be involved in rhizome development through coexpression networks. Plant hormones, especially genes involved in ABA and GAs synthesis, were highly expressed in rhizomes. Thiamine‐related genes were also more prevalent in rhizomes. Furthermore, the apical segments of rhizomes enriched in photosynthesis‐related genes suggest adaptations to light exposure. Low average temperatures in Songxi have led to unique cold acclimation in Bainianzhe, with rhizomes showing higher expression of genes linked to unsaturated fatty acid synthesis and cold‐responsive calcium signalling. This indicates that rhizomes may have enhanced cold tolerance, aiding in the plant's overwintering success. Summary statement: In this study, we report the transcriptomic landscape associated with culm and rhizome development in the ancient Chinese sugarcane variety "Bainianzhe" that has been ratooned for over three hundred years. The basal and middle sections of both types of culms exhibit similar biological processes. Orphan genes play a role in the development of rhizomes, which help provide cold tolerance in sugarcane. The presence of rhizomes contributes to the sugarcane's ability to withstand lower temperatures. [ABSTRACT FROM AUTHOR]

BACKGROUND: As unsaturated and saturated aldehydes, ketones are known to be responsible for off‐odors in surimi products, and they are mainly derived from lipid oxidation. Because surimi‐based products are rich in unsaturated fatty acids, they are prone to producing off‐odors during the refrigeration and reheating processes, which are common treatments for leftovers. The present study investigated the color, lipid oxidation productions, fatty acid profiles and volatile components in surimi gels during refrigeration at 4 °C for 3 days with multiple reheating. RESULTS: The results revealed that the accumulation rate of hydroperoxides was higher in the refrigeration stage, whereas the decomposition rate was higher during reheating in surimi gels. Both refrigeration and reheating treatments promoted conjugated diene values, acid values and carbonyl values. Nevertheless, reheating treatment decreased tohiobarbituric acid reactive substances and whiteness. The contents of unsaturated fatty acids, especially α‐linolenic acid, arachidonic acid, eicosapentaenoic acid and docosahexaenoic acid, were reduced, whereas the contents of saturated fatty acids increased during refrigeration and multiple reheating. The unsaturated fatty acids were lost as a result of their oxidative deterioration. The volatile components profile showed that the accumulation of volatile components mainly occurred in the refrigeration stage. Multivariate data analysis was utilized to further clarify whether the off‐odors in surimi gels were mainly generated in refrigeration. CONCLUSION: Refrigeration and reheating both contributed to lipid oxidation and the generation of volatile compounds in surimi gels, but the off‐odors were mainly generated during refrigeration. This research provides a novel understanding of the formation of food odors in processing. © 2024 Society of Chemical Industry. [ABSTRACT FROM AUTHOR]

Improving the stability of CO2 foam is a core concern in CO2 foam flooding oil recovery technology. Using hydrophobic nano‐SiO2 to enhance the stability of CO2 foam is a common approach, but hydrophobic nano‐SiO2 faces challenges, such as easy aggregation, difficult dispersion, and performance needs to improve. In this article, a novel dispersion of styrene‐phenylamine monomer copolymer (PSSN) nanosphere with primary amine groups on the surface was synthesized. The synthesis conditions of PSSN were optimized, and its performance for stabilizing CO2 foam was evaluated. The experimental results demonstrated that PSSN had better performance for stabilizing CO2 foam than that of hydrophobic nano‐SiO2 when using cocamidopropyl betaine (CAB) as the foaming agent. With the CAB concentration of 4000 mg/L and PSSN concentration of 100 mg/L in the brine having salinity of 8460 mg/L, the half‐life of CO2 foam at 90°C was 131 min, which was 43 min longer than that stabilized by hydrophobic nano‐SiO2 under the same conditions. This is for the first time that polystyrene microspheres with amine groups on the surface was used to stabilize CO2 foam. The study provides a new nanoparticle option for stabilizing CO2 foam. [ABSTRACT FROM AUTHOR]

Summary: In Magnaporthe oryzae, the Pmk1 MAP kinase signaling pathway regulates appressorium formation, plant penetration, effector secretion, and invasive growth. While the Mst11‐Mst7‐Pmk1 cascade was characterized two decades ago, knowledge of its signaling in the intracellular network remains limited.In this study, we demonstrate that the endosomal surface scaffolds Pmk1 MAPK signaling and Msb2 activates Ras2 on endosomes in M. oryzae.Protein colocalization demonstrated that Msb2, Ras2, Cap1, Mst50, Mst11, Mst7, and Pmk1 attach to late endosomal membranes. Damage to the endosome–vacuole transport system influences Pmk1 phosphorylation. When Msb2 senses a plant signal, it internalizes and activates Ras2 on endosome membrane surfaces, transmitting the signal to Pmk1 via Mst11 and Mst7. Signal‐sensing and delivery proteins are ubiquitinated and sorted for degradation in late endosomes and vacuoles, terminating signaling. Plant penetration and lowered intracellular turgor are required for the transition from late endosomes to vacuoles in appressoria.Our findings uncover an effective mechanism that scaffolds and controls Pmk1 MAPK signaling through endosomal–vacuolar transport, offering new knowledge for the cytological and molecular mechanisms by which the Pmk1 MAPK pathway modulates development and pathogenicity in M. oryzae. [ABSTRACT FROM AUTHOR]

Background: Early identification of hepatitis B virus‐related acute‐on‐chronic liver failure (HBV‐ACLF) holds crucial importance in guiding clinical management and reducing mortality. However, existing scoring systems often overlook patient's underlying clinical condition, which significantly impacts prognosis. Aims: Use the age‐adjusted Charlson comorbidity index (aCCI) to evaluate the patient's complications to develop a more precise model for predicting transplant‐free mortality in HBV‐ACLF patients. Methods: Nine hundred and six patients were included for investigation and were segregated into a training cohort and a temporal validation cohort according to the chronological order of admission in a ratio of 7:3. In the training cohort, univariate analysis, logistic regression analysis and LASSO regression analysis were used to construct a prognostic model and it was subsequently validated in a temporal validation cohort and an external validation cohort. Results: We found total bilirubin, neutrophils, international normalised ratio and aCCI exhibited significant associations with 28‐day transplant‐free mortality and established a novel prognostic model, named aCCI‐HBV‐ACLF. The model demonstrated strong predictive performance, with area under the receiver operating characteristic curve (ROC) values of 0.859 for 28‐day mortality, 0.822 for 90‐day mortality. In the temporal validation cohort, aCCI‐HBV‐ACLF achieved area under the ROC values of 0.869 for 28‐day mortality and 0.850 for 90‐day mortality. In the external validation cohort, aCCI‐HBV‐ACLF had area under the ROC values of 0.868 for 28‐day mortality and 0.888 for 90‐day mortality. Conclusions: This study proposes a new prognostic model, which achieved excellent predictive ability for 28−/90‐day transplant‐free mortality rates among patients with HBV‐ACLF. [ABSTRACT FROM AUTHOR]

ABSTRACT Mosquito‐borne diseases affect millions and cause numerous deaths annually. Effective vector control, which hinges on understanding their dispersal, is vital for reducing infection rates. Given the variability in study results, likely due to environmental and human factors, gathering local dispersal data is critical for targeted disease control. To analyse the spread and differentiation of Aedes aegypti in southern Taiwan, we established a dengue vector monitoring network in Southern Taiwan's cities. This network employed GPS‐equipped ovitraps to gather eggs that were subsequently hatched in the laboratory and genotyped using genome‐wide SNP markers. From 168 individuals, we identified 757,238 SNPs for detailed analysis. The estimated effective dispersal distance was 154 m (95% CI: 126–180 m), consistent with prior mark‐release‐recapture (MRR) estimates. We discovered that geographic isolation significantly influences genetic differentiation at larger scales, such as between cities, whereas its correlation with genetic distances is considerably weaker at smaller scales, like within cities. This is likely due to the urban landscape in Taiwan, characterised by narrow roads and densely packed buildings, which facilitates extensive dispersal of Ae. aegypti. In evaluating potential barriers to Ae. aegypti dispersal, we found that roads had no significant impact, whereas administrative districts accounted for 4.8% of the population differentiation (p < 10−4). Surprisingly, this variation aligns with the effects of district‐specific mosquito control measures implemented at the municipal level. These findings highlight the complex interplay between urban landscapes, administrative measures and Ae. aegypti dispersal, emphasising the need for implementing targeted control strategies that consider these local dynamics. [ABSTRACT FROM AUTHOR]

Aims Methods Results Conclusions The relationship between the incidence of major cardiovascular diseases (CVDs) and estimated glucose disposal rate (eGDR), a proxy measurement for insulin resistance (IR), is not well understood in the general population. The predictive value of eGDR and other proxies of IR for CVD incidents have not been examined in previous studies. This study aimed to investigate the association between eGDR and various CVD events, including myocardial infarction (MI), heart failure (HF), atrial fibrillation (AF) and ischemic stroke. Additionally, the predictive values of eGDR, triglyceride‐glucose (TyG) index, TyG‐waist circumference (WC), TyG‐body mass index (BMI), TyG‐waist‐to‐height ratio (WHtR), triglyceride (TG)‐to‐high density lipoprotein cholesterol (HDL‐C) ratio (TG/HDL‐C) and the metabolic score for insulin resistance (METS‐IR) for CVD events were compared.The study population was extracted from the UK Biobank, and the CVD events were documented by linking to hospital records. Cox proportional hazards model and the restricted cubic spline model were used to assess the association between eGDR and the risk of CVDs with adjustment for potential confounders. The receiver operating characteristic (ROC) curve and the area under the curve (AUC) were used to compare the predictive values of eGDR, TyG, TyG‐WC, TyG‐BMI, TyG‐WHtR, TG/HDL‐C and METS‐IR.A total of 360 953 participants were included in this study. During a median follow‐up of 13.8 years, 12 698 MI, 10 360 HF, 23 638 AF and 6512 ischemic stroke events were documented. Compared with participants in the lowest quartile category of eGDR, those in the highest quartile category had the adjusted hazard ratio (HR) and 95% confidence interval (CI) of 0.59 (0.51–0.67) for MI, 0.66 (0.56–0.76) for HF, 0.88 (0.80–0.98) for AF and 0.73 (0.61–0.89) for ischemic stroke. eGDR outperformed TyG, TyG‐WC, TyG‐BMI, TyG‐WHtR, TG/HDL‐C and METS‐IR in terms of predicting MI (AUC: 0.661), HF (AUC: 0.690), AF (AUC: 0.653) and ischemic stroke (AUC: 0.646).eGDR was inversely associated with the incidence of MI, HF, AF and ischemic stroke in the general population. eGDR could serve as a more valuable predictive indicator than TyG, TyG‐WC, TyG‐BMI, TyG‐WHtR, TG/HDL‐C and METS‐IR for CVD events in clinical practice. [ABSTRACT FROM AUTHOR]

Cobalt (Co) contamination in soils potentially affects human health through the food chain. Although rice (Oryza sativa) as a staple food is a major dietary source of human Co intake, it is poorly understood how Co is taken up by the roots and accumulated in rice grain. In this study, we physiologically characterized Co accumulation and identified the transporter for Co2+ uptake in rice. A dose‐dependent experiment showed that Co mainly accumulated in rice roots. Further analysis with LA‐ICP‐MS showed Co deposited in most tissue of the roots, including exodermis, endodermis and stele region. Co accumulation analysis using mutants defective in divalent cation uptake showed that Co2+ uptake in rice is mediated by the Mn2+/Cd2+/Pb2+ transporter OsNramp5, rather than OsIRT1 for Fe2+ and OsZIP9 for Zn2+. Knockout of OsNramp5 enhanced tolerance to Co toxicity. Heterologous expression of OsNramp5 showed transport activity for Co2+ in Saccharomyces cerevisiae. Co2+ uptake was inhibited by either Mn2+ or Cd2+ supply. At the reproductive stage, the Co concentration in the straw and grains of the OsNramp5 knockout lines was decreased by 41%–48% and 28%–36%, respectively, compared with that of the wild‐type rice. The expression level of OsNramp5 in the roots was not affected by Co2+. Taken together, our results indicate that OsNramp5 is a major transporter for Co2+ uptake in rice, which ultimately mediates Co accumulation in the grains. Summary statement: OsNramp5 is a major transporter responsible for cobalt uptake and its defect reduces cobalt accumulation in the shoot and grain of rice. [ABSTRACT FROM AUTHOR]

In situ formed gel polymer electrolytes (GPEs) have advantages in safety and adaptability to current high‐voltage lithium‐ion batteries (LIBs). However, it is challenging for GPEs to achieve stable cycling at high current densities. A flexible framework is proposed for stable in situ GPE, by introducing ─CF3 groups to the polymer network to establish rapid Li+ transport channels, and incorporating secondary amine N─H groups to anchor anion. The obtained GPE exhibits a high ionic conductivity of 2.6 mS cm−1 and a high Li+ transference number of 0.67. The assembled Li||NCM811 cell demonstrates excellent rate performance, with a discharging capacity of 112.3 mAh g⁻¹ at 10C, and capacity retention of 87.6% after 260 cycles at 1C. Furthermore, the assembled graphite||NCM811 cell demonstrates excellent long‐term cycling stability with impressive capacity retention of 73.2% after 300 cycles 3C (1.8 mA cm−2). This work presents a promising approach to enhancing the cycling stability of GPEs for high‐voltage LIBs at high current density. [ABSTRACT FROM AUTHOR]

Food aroma molecules have the potential to influence people's emotions through the olfactory pathway and are anticipated to emerge as a new method for regulating emotional states, owing to their simplicity and high acceptance. Current research on food aroma predominantly centres on the physicochemical properties and formation mechanisms of aroma components, neglecting the effects of aroma molecules in emotional regulation. Moreover, the evaluation of pleasantness, a pivotal dimension of emotions, lacks objective assessment methods. In this study, sensory assessments of pleasantness for 12 aroma compounds were gathered from 45 subjects, and their correlation with the brain's activity responses in the left frontal‐temporal lobe (LFT) and right frontal‐temporal lobe (RFT) using electroencephalogram (EEG) signals was analysed. The results revealed a close relationship between brain activity in the LFT and the perception of aroma pleasantness. Furthermore, a substantial correlation was observed between the α, β and γ frequency bands in the LFT and the subjective pleasantness scores. These findings demonstrate that the LFT plays a critical role in evaluating the pleasantness of aroma molecules, and that changes in the power of the α, β and γ bands serve as important evaluation indicators. Consequently, this method offers a new objective means for assessing pleasantness to find higher pleasantness aroma molecules and the emotional regulation of food aroma. [ABSTRACT FROM AUTHOR]

Vanadium (V)‐based oxides as cathode materials for aqueous zinc‐ion batteries (AZIBs) still encounter challenges such as sluggish Zn2+ diffusion kinetics and V‐dissolution, thus leading to severe capacity fading and limited life span. Here, we designed an ultrafast and facile colloidal chemical synthesis strategy based on crystalline Zn0.25V2O5 (c‐ZVO) to successfully prepare a‐ZVO@MoS2 core@shell heterostructures, where atomic‐layer MoS2 uniformly coats on the surface of amorphous a‐ZVO. The tailored amorphous structure of a‐ZVO provides more isotropic pathways and active sites for Zn2+, thus significantly enhancing the Zn2+ diffusion kinetics during charge–discharge processes. Meanwhile, as an efficient artificial cathode electrolyte interphase, the precision‐engineered atomic‐layer MoS2 with semi‐metallic 1T′ phase not only contributes to improved electron transport but also effectively inhibits the V‐dissolution of a‐ZVO. Therefore, the prepared a‐ZVO@MoS2 and conceptually validated a‐V2O5@MoS2 derived from commercial c‐V2O5 exhibit excellent cycling stability at an ultralow current density (0.05 A g−1) while maintaining good rate capability and capacity retention. This research achievement provides a new effective strategy for various amorphous cathode designs for AZIBs with superior performance. [ABSTRACT FROM AUTHOR]

Electrochemical CO2 reduction reaction (eCO2RR) to value‐added multicarbon (C2+) products offers a promising approach for achieving carbon neutrality and storing intermittent renewable energy. Copper (Cu)‐based electrocatalysts generally play the predominant role in this process. Yet recently, more and more non‐Cu materials have demonstrated the capability to convert CO2 into C2+, which provides impressive production efficiency even exceeding those on Cu, and a wider variety of C2+ compounds not achievable with Cu counterparts. This motivates us to organize the present review to make a timely and tutorial summary of recent progresses on developing non‐Cu based catalysts for CO2‐to‐C2+. We begin by elucidating the reaction pathways for C2+ formation, with an emphasis on the unique C−C coupling mechanisms in non‐Cu electrocatalysts. Subsequently, we summarize the typical C2+‐involved non‐Cu catalysts, including ds‐, d‐ and p‐block metals, as well as metal‐free materials, presenting the state‐of‐the‐art design strategies to enhance C2+ efficiency. The system upgrading to promote C2+ productivity on non‐Cu electrodes covering microbial electrosynthesis, electrolyte engineering, regulation of operational conditions, and synergistic co‐electrolysis, is highlighted as well. Our review concludes with an exploration of the challenges and future opportunities in this rapidly evolving field. [ABSTRACT FROM AUTHOR]

Aim: To examine the dynamic change in hepatic steatosis status during repeated assessments over time, and its potential impact on the risk of developing cardiovascular disease (CVD). Methods: We assessed trajectories of hepatic steatosis and other metabolic disorders in 3134 middle‐aged adults undergoing longitudinal assessment of ultrasonography during a pre‐baseline period (1993–2009) in a population‐based cohort study of liver health. Subsequently, we determined the association of hepatic steatosis trajectories with the incidence of CVD among 2185 CVD‐free individuals, followed until 2021. Metabolic risk factors and cardiovascular events (including coronary heart disease and stroke) were determined through medical examination and linkage with nationwide health databases. Results: We identified three discrete trajectories of hepatic steatosis according to changing pattern over time through group‐based trajectory modeling: "stable, non‐steatosis" (n = 1298), "intermittent" (n = 921), and "persistent steatosis" (n = 915). During the pre‐baseline period, hepatic steatosis trajectories were associated with trajectories of developing diabetes and hypertension, and persistent steatosis (vs. other trajectories) was associated with higher risks and rapidly progressive disease patterns. At a median 13.6 years of follow‐up, 629 CVD events occurred. A persistent (vs. non‐steatosis: HR 1.44, 95% CI 1.17–1.76), but not intermittent, steatosis pattern predicted the future risk of CVD, after adjustment for age, sex, smoking, and obesity. This association was independent of genetic background, and remained after accounting for pre‐baseline body‐mass index, other cardiometabolic risk factors, Framingham risk score, medications, and hepatic fibrosis score. Conclusions: The persistence of hepatic steatosis is associated with trajectories of metabolic disorder development and increased risk of CVD. These data have important implications for practice and further research. [ABSTRACT FROM AUTHOR]

Summary: It is urgent to mine novel blast‐resistant genes in rice and develop new rice varieties with pyramiding blast‐resistant genes. In this study, a new blast‐resistant gene, OsBRW1, was screened from a set of rice near‐isogenic lines (NILs) with different blast‐resistant ability. Under the infection of Magnaporthe oryzae (M. oryzae), OsBRW1 in the resistant NIL Pi‐4b was highly induced than that in the susceptible NIL Pi‐1 and their parent line CO39, and the blast‐resistant ability of OsBRW1 was further confirmed by using CRISPR/Cas9 knockout and over‐expression methods. The protein encoded by OsBRW1 was a typical NBS‐LRR with NB‐ARC domain and localized in both cytoplasm and nucleus, and the transient expression of OsBRW1 was capable of triggering hypersensitive response in tobacco leaves. Protein interaction experiments showed that OsBRW1 protein directly interacted with OsSRFP1. At the early infection stage of M. oryzae, OsBRW1 gene induced OsSRFP1 to highly expression level and accumulated H2O2, up‐regulated the defence responsive signalling transduction genes and the pathogenesis‐related genes and increased JA and SA content in the resistant NIL Pi‐4b. By contrary, lower content of endogenous JA and SA in osbrw1 mutants was found at the same stage. After that, OsSRFP1 was down‐regulated to constitution abundance to balance the growth of the resistant NIL Pi‐4b. In summary, OsBRW1 solicited OsSRFP1 to resist the infection of blast fungus in rice by inducing the synergism of induced systemic resistance (ISR) and system acquired resistance (SAR) and to balance the growth of rice plants. [ABSTRACT FROM AUTHOR]

Shiitake mushrooms (Lentinula edodes) hold significant cultural and economic value, particularly in Asia where they are extensively cultivated. The diversification of shiitake cultivars, driven by the need to adapt to various climatic conditions and cultivation methods, has resulted in over 200 distinct cultivars. Reliable identification of these cultivars is crucial for breeding, intellectual property protection, and effective genetic resource management. Traditional morphological methods are inadequate due to their subjectivity and labor‐intensive nature. This study leverages nanopore high‐throughput sequencing to comprehensively analyze the rDNA regions (SSU, ITS, LSU, IGS) of 41 shiitake strains from Taiwan's Bioresource Collection and Research Center (BCRC), comprising 5 wild strains, 33 commercial strains, and 3 wild‐commercial hybrids. Our results identified the IGS1 region as the most variable and suitable for cultivar differentiation. Consequently, we developed an interactive online database (https://github.com/Raingel/ShiitakeIGS1) that integrates 317 IGS1 sequences from Taiwan, Japan, and China. This platform allows users to upload their IGS1 sequences and identify similar cultivars through a user‐friendly interface, enhancing the precision and efficiency of shiitake cultivar identification. [ABSTRACT FROM AUTHOR]

In this paper, the low‐cycle fatigue fracture behavior and life prediction of Cr–Ni–Mo–V gun steel at room temperature and 600 °C are studied. The results indicated that at room temperature and 600 °C, the Cr–Ni–Mo–V gun steel exhibited obvious monotonic softening and cyclic softening. This behavior could be attributed to the formation of dislocation networks, dislocation walls, dynamic recovery, and dynamic recrystallization. As the temperature increased, the failure mode gradually shifted from mixed transgranular and intergranular fractures to intergranular fractures possibly owing to the reduced grain boundary strength and easy oxidation of the grain boundary at high temperatures. In addition, the fatigue life prediction model considering the influence of temperature is established by using the energy dissipation quadratic function, offering a practical method to improve the fatigue performance evaluation of Cr–Ni–Mo–V gun steel at various temperature. [ABSTRACT FROM AUTHOR]

Hepatic metachronous oligometastatic nasopharyngeal carcinoma (hmoNPC) exhibits distinct clinical characteristics compared to other types of metastatic NPC. We investigated the optimal therapy for hmoNPC. 160 patients with hmoNPC treated in Sun Yat‐sen University Cancer Center between 2010 and 2021 were retrospectively recruited. A total of 56 patients were classified into the local therapy (LT) cohort, 23 into the systemic therapy (ST) cohort and 81 into the combination therapy (LT + ST) cohort. The median PFS was 7.9 months (95% confidence interval [CI]: 4.1–11.9 months) in the LT cohort, 15.5 months (95% CI: 10.5–32.3 months) in the ST cohort, and 31.3 months (95% CI: 20.3 to NA months) in the LT + ST cohort. The median OS was 41.1 months (95% CI: 30.0–54.0 months) in the LT cohort, 50.4 months (95% CI: 41.5 to NA months) in the ST cohort and not reached (NR) (95% CI: 77.3 to NA months) in the LT + ST cohort. Cox analysis was used to construct nomograms to predict patient outcomes. Among patients with no evidence of disease status after LT, the prognosis was significantly better in the LT + ST cohort than LT cohort (median PFS: NR [95% CI: 29.0 to NA months] vs. 20.0 months [95% CI: 10.4 to NA months]). More survival benefits were achieved with platinum‐based chemotherapy than oral monotherapy (median PFS: NR [95% CI: 21.7 to NA months] vs. 17.2 months [95% CI: 10.2 to NA months]). Fewer postoperative early progression events were observed in neoadjuvant chemotherapy cohort than in adjuvant chemotherapy cohort (2.78% vs. 18.81%, P =.013). In conclusion, combining neoadjuvant platinum‐based chemotherapy and local therapy was the best strategy for patients with hmoNPC. [ABSTRACT FROM AUTHOR]

Objectives: The relationship between the middle temporal (MTG) and occipital cortices in post‐lingually deaf (PLD) individuals is unclear. This study aimed to investigate changes in the MTG and occipital cortices excitability and their effects on the occipital cortex in individuals with PLD after receiving a cochlear implant (CI). Methods: Twenty‐six individuals with severe‐to‐profound binaural sensorineural PLD were assessed clinically. Nine individuals had received a unilateral cochlear implant over 6 months, while 17 had not. Brodmann area 19 (BA19, extra‐striate occipital cortex) and MTG (auditory‐related area of cortex) were selected as regions of interest. The excitability of the ROI was observed and compared in the surgery and no‐surgery groups by functional near‐infrared spectroscopy (fNIRS) in the resting state, and correlations between connectivity of the MTG and occipital cortex, and as well as the duration of time that had elapsed following CI surgery, were investigated. Results: fNIRS revealed enhanced global cortical connectivity in the BA19 and MTG on the operative side (p < 0.05) and the connectivity between BA19 and the MTG also increased (p < 0.05). The connectivity between the MTG and BA19 was positively correlated with the duration of cochlear implantation, as was the case for BA18. Conclusion: There was evidence for remodeling of the cerebral cortex: increased excitability was observed in the MTG and BA19, and their connectivity was enhanced, indicating a synergistic effect. Moreover, the MTG may further stimulate the visual cortex by strengthening their connectivity after CI. Level of Evidence: 3 Laryngoscope, 135:331–338, 2025 [ABSTRACT FROM AUTHOR]

Objective: The investigation of brain functional network dynamics offers a promising approach to understanding network reorganization poststroke. This study aims to explore the dynamic network configurations associated with motor recovery in stroke patients and assess their predictive potential using multilayer network analysis. Methods: Resting‐state functional magnetic resonance imaging data were collected from patients with subacute stroke within 2 weeks of onset and from matched healthy controls (HCs). Group‐independent component analysis and a sliding window approach were utilized to construct dynamic functional networks. A multilayer network model was applied to quantify the switching rates of individual nodes, subnetworks, and the global network across the dynamic network. Correlation analyses assessed the relationship between switching rates and motor function recovery, while linear regression models evaluated the predictive potential of global network switching rate on motor recovery outcomes. Results: Stroke patients exhibited a significant increase in the switching rates of specific brain regions, including the medial frontal gyrus, precentral gyrus, inferior parietal lobule, anterior cingulate, superior frontal gyrus, and postcentral gyrus, compared to HCs. Additionally, elevated switching rates were observed in the frontoparietal network, default mode network, cerebellar network, and in the global network. These increased switching rates were positively correlated with baseline Fugl–Meyer assessment (FMA) scores and changes in FMA scores at 90 days poststroke. Importantly, the global network's switching rate emerged as a significant predictor of motor recovery in stroke patients. Conclusions: The reorganization of dynamic network configurations in stroke patients reveals crucial insights into the mechanisms of motor recovery. These findings suggest that metrics of dynamic network reorganization, particularly global network switching rate, may offer a robust predictor of motor recovery. [ABSTRACT FROM AUTHOR]

Background: Trauma and burns are leading causes of death and significant global health concerns. RNA‐binding proteins (RBPs) play a crucial role in post‐transcriptional gene regulation, influencing various biological processes of cellular RNAs. This study aims to review the emerging trends and key areas of research on RBPs in the context of trauma and burns. Methods: A series of relevant articles were manually reviewed, and scientific publications on RBPs related to trauma and burns were retrieved from the Web of Science Core Collection (WoSCC) on May 19, 2024. Bibliometric analysis was performed using R‐bibliometrix, VOSviewer, and CiteSpace. We adhered to the Preferred Reporting Items for Systematic Reviews and Meta‐Analyses (PRISMA) guidelines to conduct the meta‐analysis, followed by a comprehensive review of the selected papers. Results: A total of 539 publications were identified from 2000 to 2024. China was the most productive and collaborative country, with Zhang Y being the most prolific author and PLoS One being the leading publication source. Keyword analysis revealed four distinct clusters. The thematic analysis identified eight key topics, including "RNA‐binding proteins," "traumatic brain injury," and "inflammation." Four studies involving 5.976 patients were included in the final meta‐analysis, which indicated a correlation between RBP expression levels and poor prognosis in traumatic brain injury (TBI). Conclusion: Our findings provide valuable insights into the developing trends and key areas of research on RBPs in trauma and burns. Notably, we identified two primary hotspots: RBPs in the pathophysiological mechanisms of various traumatic injuries and RBPs in the processes of cutaneous wound healing. This rapidly evolving field offers significant reference points for scientific researchers and clinical practitioners. [ABSTRACT FROM AUTHOR]

ABSTRACT Testicular ageing is accompanied by a series of morphological changes, while the features of mitochondrial dysfunction remain largely unknown. Herein, we observed a range of age‐related modifications in testicular morphology and spermatogenic cells, and conducted single‐cell RNA sequencing on young and old testes in Drosophila. Pseudotime trajectory revealed significant changes in germline subpopulations during ageing. Our examination unveiled that genes showing bias in spermatids exhibited higher dN/dS than those in GSCs_Spermatogonia. Genes biased towards young GSCs_Spermatogonia displayed higher dN/dS than those in old GSCs_Spermatogonia. Interestingly, genes biased towards young spermatids demonstrated lower dN/dS in contrast to those in old spermatids, revealing the complexity of evolutionary adaptations during ageing. Furthermore, mitochondria associated events, including oxidative phosphorylation, TCA cycle and pyruvate metabolism, were significantly enriched in germline subpopulations. Specifically, mitochondrial function was significantly impaired during the process of testicular ageing, concurrently emphasising the role of several key nuclear genome‐encoded mitochondrial regulatory genes, such as Hsp60B, fzo, Tim17b1 and mRpL12. Our data offer insights into testicular homeostasis regulated by mitochondrial function during the ageing process. [ABSTRACT FROM AUTHOR]

Returning CO2 to liquid ethanol powered by clean energy offers considerable economic benefits and contributes to reaching the goal of carbon neutrality, but it remains a formidable challenge to achieve high ethanol selectivity due to the inevitable strong competition among various pathways. Herein, an investigation is presented to accelerate CO2 electroreduction to ethanol via preferentially stabilizing the precarious watershed intermediates (*CHCOH) by creating strong adsorbate‐adsorbate interaction. The highly ordered CuOx nanoplates (HO‐CuOx NPLs) featuring abundant amorphous‐crystalline interface exhibit an exceptional ethanol Faradaic efficiency (FEEtOH) of 63.8% and an ethanol‐to‐ethylene ratio of 6.1 at a large ethanol partial current density (jethanol) of 232.8 mA cm−2. The findings decipher that abundant in‐between nanogaps in the amorphous‐crystalline interface enhance the adsorption of *OH, which can preferentially strengthen C─O bonds while weakening the Cu─C interaction of *CHCOH through adsorbate‐adsorbate interaction, thereby enabling a predilection for CO2 to ethanol conversion. Beyond an efficient ethanol‐oriented CO2RR electrocatalyst, the investigations provide an in‐depth understanding of adsorbate‐adsorbate interaction on key CO2RR steps and precise intermediates regulation, which can be extended to a range of energy conversion technologies. [ABSTRACT FROM AUTHOR]

Polyhydroxyalkanoates (PHAs) have attracted broad interest as promising sustainable materials to address plastic pollution and resource scarcity. However, the chemical synthesis of stereoregular PHAs via ring‐opening polymerization (ROP) has long been an elusive endeavor. In this contribution, we exploited a robust spiro‐salen yttrium complex (Y3) as the catalyst to successfully prepare syndiotactic PHAs with diverse pendent groups. Simply altering the ratio of enantiomeric catalysts allowed to access of PHAs with diverse syndiotacticity (Pr=0.5–0.99, from sticky oil to tough materials), delivering tunable thermal properties (glass transition temperature, Tg from −52 to 70 °C and melting transition temperature, Tm from 38 to 223 °C). A combined experimental and computational study suggested a polymeric exchange mechanism could boost the polymerization activity and control the syndioselectivity. [ABSTRACT FROM AUTHOR]

Emerging evidence recognizes aberrant glycosylation as the malignant characteristics of cancer cells, but little is known about glycogenes' roles in endometrial carcinoma (EC), especially the most aggressive subtype carrying TP53 mutations. Using unsupervised hierarchical clustering, an 11‐glycogene cluster is identified to distinguish an EC subtype associated with frequent TP53 mutation and worse prognosis. Among them, MGAT4A (alpha‐1,3‐mannosyl‐glycoprotein 4‐β‐N‐acetylglucosaminyltransferase A) emerges as the most consistently overexpressed glycogene, contributing to EC aggressiveness. In the presence of galectin‐9, MGAT4A increases EC cell proliferation and invasion via promoting glucose metabolism. N‐glycoproteomics further revealed GLUT1, a glucose transporter, as a glycoprotein modified by MGAT4A. Binding of galectin‐9 to the MGAT4A‐branched N‐glycan on GLUT1 enhances its cell membrane distribution, leading to glucose uptake increase. In addition, oncogenic mutations of TP53 gene in EC cells upregulate MGAT4A expression by disrupting the regulatory oversight exerted by wild‐type p53 on tumor‐suppressive miRNAs, including miR‐34a and miR‐449a/b. The findings highlight a new molecular mechanism involving MGAT4A‐regulated N‐glycosylation on the key regulator of glucose metabolism in p53 mutants‐driven EC aggressiveness, which may provide a strategic avenue to combat advanced EC. [ABSTRACT FROM AUTHOR]

As the presence of anaerobic metabolism of glucose, solid tumors characteristically display higher levels of lactate production, which attenuate ferroptosis therapy and the subsequent anti‐tumor immune response. Herein, hyaluronic acid (HA)‐modified and lactate oxidase (LOX)‐loaded nanoscale metal organic frameworks (MOFs), termed as FCS@LOX@HA (FCSLH) is constructed, achieving tumor‐targeted metabolic combined chemo‐dynamic therapy (CDT). Notably, the high LOX‐loading capacity of MOFs is achieved by adjusting the Fe/Cu ratio. Upon internalization by cancer cells, the FCS MOFs reacted with local glutathione (GSH) to release Fe/Cu ions for CDT. Meanwhile, the LOX catalyzed endogenous lactate to pyruvate accompanied with a release of H2O2; while the latter can enhance the FCS MOFs‐mediated CDT effect. Additionally, lactate exhaustion can impair the antioxidant system by inhibiting the HIF‐1α/SLC1A1 pathway, resulting in the accumulation of lipid peroxidation, and ferroptosis occurs accompanied by immunogenic cell death. Furthermore, lactate exhaustion within tumor‐associated macrophages (TAMs) can inhibit M2 macrophage polarization by suppressing the NF‐κB/HIF‐1α pathway, thereby augmenting anti‐tumor immune response. The in vivo studies demonstrated that cooperating with PD‐L1 antibodies can achieve excellent anti‐tumor therapeutic efficacy. Taken together, FCSLH can amplify the ferroptosis‐mediated immune response through simultaneous dysfunction of cancer cells and TAMs, which provides novel insight for integrating metabolic programmed therapy and immunotherapy. [ABSTRACT FROM AUTHOR]

Organic electrode materials have attracted considerable attention for electrochemical energy storage due to their abundance of elements, tunable molecular structure, and sustainability. However, the application of organic batteries is plagued by their high solubility and low discharge potential, resulting in poor cycle life and low energy density. Here, ([5,15‐bis(4‐diphenylaminophenyl) porphyrin] Cu(II) (CuDTNP) and [5,10,15,20‐tetrakis(4‐diphenylaminophenyl)porphyrin] Cu(II) (CuFTNP)) as cathodes for organic‐lithium batteries are presented. A highly stable cathode (CuFTNP) with high potential (3.82 V) is achieved by introducing triphenylamine groups in the meso‐position of the porphyrin complex due to the self‐polymerization behavior and anion storage during the electrochemical reaction. Benefiting from triphenylamine groups, higher diffusion coefficients (3.93 × 10−9 cm2 s−1) is achieved, ascribed to the enhanced conjugated structure. As a result, a power density of 34.2 kW kg−1, and excellent cycling stability up to 40 000 cycles are achieved. This cathode can also be extended in organic‐sodium batteries with good cycling stability (600 cycles) and high potential (3.60 V). The charge storage mechanism and polymerization behavior are evidenced by in situ FTIR and in situ Raman characterization. This study will provide inspiration for the development of next‐generation organic cathodes with high potential, high power density, and long‐cycle life through molecular design. [ABSTRACT FROM AUTHOR]

Transition metal phosphides (TMPs) are promising hydrogen evolution reaction (HER) electrocatalysts, but the unsatisfying activity and durability at industrial‐scale current densities hinder their application. Downsizing TMPs to nanoclusters can substantially enhance their activity; yet, the high surface free energy tends to initiate agglomeration thereby limiting their service life. Herein, a molecular engineering strategy to synthesize robust sulfur‐doped RuP2 (S‐RuP2) nanoclusters, which can continuously provide ampere‐level current densities of 1.0, 2.0, and 3.0 A cm−2 for at least 480 h with low overpotentials of 55.6 ± 1.0, 90.6 ± 1.2, and 122.8 ± 1.0 mV, respectively, is proposed. In particular, it exhibits a remarkable charge transfer amount (representing a long service life), outperforming all reported alkaline HER electrocatalysts. Remoulding the RuP2 architecture by sulfur atom can significantly lift the d‐band center of Ru and the p‐band center of P, therefore strengthening the adsorption of H2O, H, and OH to reduce the barriers of water dissociation and H migration. The authors' research unveils the enormous potential of molecule‐based porous materials for designing high‐performance nano‐structured catalysts. [ABSTRACT FROM AUTHOR]

Background: We investigated a visual model for estimating prognosis in older patients with nonmetastatic nasopharyngeal carcinoma (NPC) and analyzed the survival rates in different patient groups during intensity‐modulated radiotherapy (IMRT). Methods: Between January 2012 and March 2021, patients with NPC aged > 65 years who received IMRT and were initially diagnosed with no distant metastases were enrolled. Propensity score analysis with 1:1 matching was used to balance baseline characteristics, including age, sex, tumor stage, and comorbidities. Kaplan–Meier analysis was used to calculate survival. Cox regression analysis was used to identify independent prognostic factors for overall survival (OS). A nomogram was constructed based on the determined prognostic factors, and prediction accuracy was evaluated using receiver operating characteristic (ROC) and calibration curves. Results: In total, 140 patients were included in the analysis (median age: 69 years; range: 66–81 years). The median follow‐up was 84.9 (26.2–131.5) months. Compared with radiotherapy (RT) alone, chemotherapy during RT failed to improve OS (54.2% vs. 50.0%, respectively; p = 0.969), cancer‐specific survival (CSS) (59.1% vs. 60.5%, respectively; p = 0.712), distant metastasis–free survival (DMFS) (66.7% vs. 70.5%, respectively; p = 0.824), or locoregional relapse–free survival (LRFS) (85.0% vs. 86.9%, respectively; p = 0.811). After the final regression analysis, age, age‐adjusted Charlson comorbidity index (ACCI) score, N stage, and total stage were identified as independent factors affecting OS prognosis. The OS nomogram was applied to the data and, based on the value of the area under the ROC and calibration curves, demonstrated satisfactory predictive performance. Conclusions: Survival outcomes in older patients with NPC treated with RT alone were similar to those in patients treated with both chemotherapy and RT. Our nomogram had good performance in predicting OS in older patients with NPC and may benefit the clinical decision‐making process. [ABSTRACT FROM AUTHOR]

Pancreatic ductal adenocarcinoma (PDAC) is a highly malignant tumor with a dismal prognosis. Gemcitabine‐based chemotherapy has emerged as a first‐line treatment for PDAC. However, the development of gemcitabine resistance often results in therapeutic failure. In order to uncover the underlying mechanisms of gemcitabine resistance, gemcitabine‐resistant PDAC cell lines and patient‐derived xenograft (PDX) models are established and subjected to RNA sequencing. It is found that CMTM6 is closely related to gemcitabine resistance in PDAC. Multi‐omics analysis revealed that EP300‐mediated H3K27ac modification is involved in the transcriptional activation of CMTM6, which maintains IGF2BP1 expression by preventing its ubiquitination. The m6A reader IGF2BP1 stabilizes the EP300 and MYC mRNAs by recognizing m6A modifications, forming a positive feedback loop that enhances tumor stemness and ultimately contributes to PDAC resistance. The combined application of the EP300 inhibitor inobrodib and gemcitabine exerts a synergistic effect on PDAC. Overall, these findings reveal that the EP300–CMTM6–IGF2BP1 positive feedback loop facilitates gemcitabine resistance via epigenetic reprogramming and the combined use of inobrodib and gemcitabine represents a promising strategy for overcoming chemoresistance in PDAC, warranting further investigation in clinical trials. [ABSTRACT FROM AUTHOR]

C‐shaped ortho‐benzodipyrrole‐based A‐DNBND‐A non‐fullerene acceptors (NFAs), derived from the removal of the A′ thiadiazole moiety in Y6, emerge as a new class of structurally simplified A‐D‐A‐type NFAs. In this work, a selenium‐substitution strategy is applied to the central DNBND ladder‐π‐core, yielding asymmetric CB‐Se and symmetric CB‐2Se. Asymmetric CB‐Se demonstrates a less ordered 3D trapezoid‐like packing structure, which promotes a more favorable intermixed donor‐acceptor morphology with PM6 polymer, achieving a higher power conversion efficiency (PCE) of 17.87% in organic photovoltaics (OPVs). This value represents the highest reported value among the selenium‐incorporated A‐D‐A‐type NFAs. Symmetric CB‐2Se forms a kaleidoscope‐like 3D single‐crystal structure with enhanced intermolecular interactions. This enables the development of a single‐crystal‐like solution‐processed thin film, which transitions from a kinetically trapped face‐on π–π stacking orientation to a thermodynamically stable edge‐on configuration upon thermal annealing. The CB‐2Se‐based organic field‐effect transistor (OFET) achieved a remarkable electron mobility of 1.18 cm2 V−1 s−1 with exceptional n‐type air stability, which outperformed the corresponding A‐DNA′ND‐A‐type Y6‐based materials by two orders magnitudes and represents the highest reported value for solution‐processed n‐type OFETs utilizing A‐D‐A‐type small molecules. [ABSTRACT FROM AUTHOR]

Vacancy‐ordered perovskites and derivatives represent an important subclass of hybrid metal halides with promise in applications including light emitting devices and photovoltaics. Understanding the vacancy‐property relationship is crucial for designing related task‐specific materials, yet research in this field remains sporadic. For the first time, we use the Connolly surface to quantitatively calculate the volume of vacancy (V□, □=vacancy) in vacancy‐ordered double perovskite derivatives (VDPDs). A relationship between void fraction and the structure, photoluminescent properties and humidity stability was established based on zero‐dimensional (0‐D) [N(alkyl)4]2Sb□Cl5□′‐type VDPDs. Compared with the more commonly studied A2M(IV)X6□‐type double perovskite (A=cation, M=metal ion, X=halide), [N(alkyl)4]2Sb□Cl5□′ features double vacancy sites. Our results demonstrate an inverse relationship between the photoluminescent quantum yield and V□ in 0‐D VDPDs. Additionally, structural transformation from A2SbCl5 to A3Sb2Cl9 was first reported, during which the novel 'gate‐opening' gas adsorption phenomenon was observed in VDPDs for the first time, as evidenced by 'S'‐shaped sorption isotherms for water vapor, indicating a cation‐controlled water‐vapor response behavior. A mixed‐cation strategy was developed to modulate the humidity stability of VDPDs. Characterized by controllable water‐responsive behavior and unique 'on‐off‐on' luminescent switching, A2M(III)□X5□′‐type materials show great promise for multi‐level information anti‐counterfeiting applications. [ABSTRACT FROM AUTHOR]

Hard carbons (HCs) have emerged as promising candidates for commercial anodes in potassium‐ion batteries (PIBs). However, a thorny challenge remains in achieving high reversible capacities at high charge/discharge rates, which significantly hinders the development of HCs for PIBs. Here, a temperature‐controlled strategy is proposed to effectively balance graphitic nanodomains and heteroatom doping content in HCs, resulting in widened carbon layer spacing, high conductivity, and abundant K‐ion intercalation sites. The optimized NO‐HC600 electrode exhibits a high reversible capacity of 315.0 mAh g−1 at 0.2 A g−1, and exceptional cyclic stability (235.0 mAh g−1 after 1200 cycles at 2.0 A g−1 with a capacity retention rate of 98.82%). Furthermore, systematic in /ex situ experiments unveil a highly reversible "adsorption–intercalation" mechanism governing potassium‐ion storage, confirming the origin of the superior performance. This work offers valuable insights into the facile preparation of HC anodes with high reversible capacity and fast charge/discharge capability for PIBs. [ABSTRACT FROM AUTHOR]

All‐inorganic cesium lead halide (CsPbX3, X = Cl, Br, I) perovskite quantum dots (PeQDs) are successfully incorporated within the cages of zirconium‐based UiO‐series metal–organic frameworks (MOFs) using in situ ship‐in‐a‐bottle method at room temperature under ambient conditions. The resulting mBPP‐MOF, which includes the 4,4′‐(2,2′‐bipyridyl‐5,5′‐diyl)dibenzoic acid (H2BPP) linker, features a larger cavity size than UiO‐66 and UiO‐67‐bpy, allowing for uniform accommodation of PeQDs within its cages. This PeQDs@MOF hybrid heterostructure enhances the separation and transfer of photogenerated charges, enabling the synthesized CsPbBr3@mBPP‐MOF to demonstrate highly selective and stable performance in the photocatalytic oxidation of toluene under visible light irradiation at 395 nm. This advancement represents a potential breakthrough in organic photocatalysis due to the material's low cost, ease of processing, high efficiency, and tunable bandgap. [ABSTRACT FROM AUTHOR]

ABSTRACT In the context of the global transition to renewable energy sources, the offshore wind power sector is confronted with operational inefficiencies during the thermal processing and assembly of wind turbine spindles and components. The research, centered on General Electric's offshore wind turbine assembly facility, addresses the deficiencies in the thermal management of bearing heating systems, the prevalence of rework due to substandard thermal treatments, and the inefficiencies in energy utilization. The paper proposes a targeted strategy comprising three key interventions: (1) The synchronization of bearing heating procedures with the off‐peak electricity tariff regime to mitigate peak demand and associated energy expenditures and carbon footprints. (2) The deployment of a thermoelectric generator (TEG) system to harness and convert waste heat into electrical energy, with meticulous modeling of its thermal dynamics. (3) The engineering of a thermally insulated housing for bearings to curtail thermal losses. The projected outcomes of these interventions are a reduction in electricity costs by 127.83 yuan, a decrease in carbon emissions by 90.41 kg, and a substantial reduction in heat loss. The findings of this research underscore the efficacy of thermal process optimization, waste heat recuperation, and thermal insulation in enhancing the energy efficiency of bearing heating systems, thereby contributing to the broader objectives of energy conservation and emission reduction in the renewable energy sector, which is imperative in the contemporary era of climate change mitigation and sustainable development. [ABSTRACT FROM AUTHOR]

Aims Materials and Methods Results Conclusions To assess the association between metformin use and the risk of sudden sensorineural hearing loss (SSNHL) in patients with Type 2 diabetes (T2D), a population at elevated risk for SSNHL.This cohort study utilized data from Taiwan's National Health Insurance Research Database, following T2D patients from 2008 to 202 database's baseline. Metformin use was defined as achieving ≥80% of the medication possession ratio (MPR) and ≥28 cumulative defined daily doses (cDDD) within three months. The control group included patients with ≥80% MPR from other antidiabetic agents, ensuring active treatment comparability. Propensity score matching was applied to balance covariates, while competing risk models accounted for mortality. Hazard ratios (HRs), incidence rates (IRs), and incidence rate ratios (IRRs) were calculated.Metformin users demonstrated a lower SSNHL incidence (IR: 11.48 per 10,000 person‐years) compared to non‐users (IR: 15.66 per 10,000 person‐years), with an IRR of 0.73 (95% CI: 0.66–0.82; p < 0.0001). Adjusted HRs indicated a 27% reduction in SSNHL risk (HR: 0.73; 95% CI: 0.66–0.82). Higher cumulative doses (Q4: HR 0.36; 95% CI: 0.29–0.46) and daily doses ≥1 DDD (HR: 0.78; 95% CI: 0.69–0.87) were linked to further risk reductions. Metformin use was also associated with lower overall mortality.Metformin use is associated with a dose‐dependent reduction in SSNHL risk and lower mortality in T2D patients. The rigorous definitions of metformin exposure and an actively treated comparator group emphasize these findings, suggesting metformin's potential role in SSNHL prevention and improved survival. [ABSTRACT FROM AUTHOR]

Conventional spatial interpolation methods for meteorological data are usually based on linear interpolation. However, with the improvements in the temporal and spatial resolution of observational data, local neighbouring stations are susceptible to the influence of underlying surface changes and high terrain gradients. Moreover, for interpolation at a single time point, the inability to extract continuous change information effectively from adjacent times limits the interpolation performance. In this paper, an improved hybrid deep learning‐kriging method is proposed that combines a graph neural networks (GNNs) prediction model with the kriging interpolation algorithm. The GNNs considers dynamic changes over time and combines spatial and temporal information to estimate (interpolate) meteorological data at target weather stations using reanalysis data as input. The experimental results show that the hybrid method exhibits good performance in interpolating station data in complex terrain areas and under uneven surface conditions. The interpolation effectiveness of this method is markedly improved compared to that of traditional kriging methods. Moreover, when applied to station‐to‐grid interpolation, the hybrid method still provides better interpolation results than those of kriging methods. Therefore, this research provides a new method and perspective for meteorological data interpolation. [ABSTRACT FROM AUTHOR]

The ongoing advancements and growing adoption of infrared detection technology have spurred a tremendous amount of interest in thermal camouflage technology. Various approaches are employed to develop infrared camouflage materials capable of manipulating emissivity or surface temperature. However, the range of thermal radiation regulation implemented by these materials is still somewhat limited. In this paper, a combined emissivity and temperature regulation strategy that integrates a thermoelectric device (TED) and a thermochromic structure is proposed. By utilizing this strategy, it becomes possible to simultaneously control the surface temperature and the emissivity without needing additional complex excitation. As a concept demonstration, large tunabilities of 0.38 for long‐wave infrared (8–14 µm) emittance and 87 °C for surface temperature are observed, resulting in a prominent tunability of the thermal radiation temperature that is 15.4 °C greater than that of a conventional TED with constant emissivity. This work aims to introduce a new design paradigm for future thermal radiation management and camouflage techniques. [ABSTRACT FROM AUTHOR]