CHEMICAL PHYSICS LETTERS
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2025
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IF 3.1
Jiaying Yang,Yiman Qian,Jingqi Yan,Jiayin Li,Pengfei Liu
Advanced oxidation processes (AOPs) surpass photocatalytic methods in energy efficiency, enabling organic dye degradation under mild conditions without light activation. In this study, we crafted a highly effective Zr(WO 4 ) 2 catalyst for AOPs, rigorously characterized through SEM, TEM, TG-DTA, N 2 -sorption, XRD, and XPS analyses. The system demonstrated exceptional catalytic performance, achieving 95.62 % phenol removal (2 mg/L) within 60 min using only 0.1 g/L Zr(WO 4 ) 2 and 1 mM PMS, with singlet oxygen ( 1 O 2 ) identified as the dominant reactive species. Crucially, the synergistic redox interplay between Zr 4+ and WO 4 2− surface species emerged as the critical driver for efficient PMS activation. Beyond its catalytic prowess, the Zr(WO 4 ) 2 system exhibited remarkable reusability and versatility across multiple applications, while generating treated water with minimal toxicity, positioning it as an environmentally promising solution.
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CELLULAR PHYSIOLOGY AND BIOCHEMISTRY
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2025
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IF 2
Jingyi Cao,Guangyue Wang,Yan Zhao,Guihua Zhang,Qian Wang,Hua Peng,Jie Liang,Jie Zhou,Yuning Dong,Shasha Li,Ke Jiang,Changsong Pei,Qichao Wang
Background/aims: Bladder cancer is a type of malignant tumor that disrupts normal urinary function in patients, thereby significantly impacting their quality of life. This disease also imposes a heavy economic burden on both patients and public health agencies due to high medical costs. Current common therapies, such as surgical intervention, chemical treatment, and radiotherapy, are associated with serious adverse reactions and risks of metastasis recurrence. Effective attenuation of bladder cancer proliferation and invasion remains a significant challenge. Circular RNAs have shown promise in regulating proliferation and migration of cancer cells, thus making it a potential therapeutic target for bladder cancer treatment and prognosis. This study aims to evaluate the impact of regulating circPTK2 expression on progression of bladder cancer. Methods: This research established overexpression and knock down circPTK2 models of bladder cancer cells (SW780 and UM-UC-3) primarily. Then evaluate the effect by a series of cell function test (including RT-qPCR, MTT, EdU assay, cell clone, transwell, cell cycle and cell apoptosis). Results: The findings suggest that regulated expression of circPTK2 in bladder cancer cells correlated with the abundance of mir129-5p. Meanwhile, knock down circPTK2 expression in bladder cancer cells reduced their ability to proliferate and invade; but these processes were reversed when circPTK2 expression was increased. Conclusion: In conclusion, circPTK2 may play a vital role in regulating bladder cancer progression, thereby showing potential for treatment of bladder cancer and improvement of prognosis by modulating circPTK2.
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PROCESS SAFETY AND ENVIRONMENTAL PROTECTION
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2025
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IF 7.8
Pan Zhang,Zhongfa Zha,Jiawen Yang,Xinbo Wang,Jianwen Song,Shuming Du,Liwen Li,Kun Zhao,Dong Fu,Lemeng Wang,Jun Ke,Pengfei Qu
High energy consumption during CO₂ desorption remains a critical bottleneck limiting the industrial application of monoethanolamine (MEA)-based carbon capture technologies. To address this issue, a novel high-efficiency catalyst, the 1:4-Ti@D composite catalyst based on diatomite and TiO(OH) 2 surface modification, was developed. Catalytic performance was evaluated in 30 wt% MEA solution at 90 °C. Compared with non-catalytic processes, the 1:4-Ti@D catalyst enhanced total CO₂ desorption amount by 46.2 % and maximum desorption rate by 125.1 %, while reducing desorption energy consumption by 39.2 %. Notably, it maintained stable catalytic efficiency after 10 consecutive adsorption-desorption cycles, confirming its durability for industrial use. The physicochemical characteristics of the catalysts were comprehensively elucidated through various multi-dimensional characterization techniques. The experimental findings revealed that the synergistic effect of TiO(OH) 2 and diatomite substantially augmented the surface acid site density, while the optimized mesoporous structure facilitated efficient reactant transport, thereby underpinning the catalyst's exceptional performance. By the study of desorption mechanism, the stronger interaction between Ti and O of reactants can lead easier H 2 O and RNHCOO - absorption and activation. Moreover, an assessment of the catalyst's impact on thermal and oxidation degradation as well as the corrosion rate of MEA indicated minimal influence on amine degradation and corrosion processes. This work provides a new strategy for developing low-cost, high-stability clay-based catalysts and offers technical support for advancing energy-efficient industrial carbon capture systems.
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JOURNAL OF COLLOID AND INTERFACE SCIENCE
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2025
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IF 9.7
Caiyun Wang,Xingxing Wu,Yufan Xia,Xuan Zhang,Hongge Pan,Mi Yan,Yong Li,Yinzhu Jiang
Mg metal anodes experience significant passivation of harmful side reactions in conventional electrolyte consisting of magnesium bis(trifluoromethane sulfonyl)imide (Mg(TFSI) 2 ) in 1,2-dimethoxyethane (DME), which critically impedes the advancement of high-performance rechargeable magnesium batteries. Herein, an innovative electrolyte system comprising an ultra-dilute 0.02 M Mg(TFSI) 2 in DME with 4-chlorobutyl methyl ether (CME) as co-solvent is strategically devised. This unique formulation effectively suppresses the formation of TFSI − -derived passivation byproducts while simultaneously facilitating the establishment of protective Cl-rich interphase, thereby achieving exceptional reversibility in Mg plating/stripping processes. Remarkably, Mg electrodes demonstrate stable cycling performance with a minimal overpotential of 70 mV at 0.1 mA cm −2 in the optimized 0.02 M Mg(TFSI) 2 -DME/CME electrolyte. More impressively, the system maintains reversible electrochemical operation for 400 h even at 2 mA cm −2 . This work presents a novel electrolyte formulation for overcoming the limitations of Mg metal anode in conventional Mg(TFSI) 2 based electrolytes, offering new perspectives for the development of next-generation rechargeable magnesium batteries.
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Sustainable Materials and Technologies
·
2025
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IF 9.2
Haize Jin,Xiaoxia Huang,Wen Yijun,Mengyao Zhu,Cuixia Li,Qikun Wang
Photothermal synergistic catalysis provides an efficient implementation strategy for CO₂ conversion into renewable energy. Here, we synthesized a geopolymer/g-C₃N₄/Ni(OH)₂ (GCN) photothermal catalyst featuring nanoscale-interval exposed adsorption and photothermal catalytic active sites through concurrent geopolymerization and alkaline precipitation reactions. The rational modulation of Ni(NO₃)₂ proportion induced explosive nucleation of Ni(OH)₂, ultimately resulting in a nanostructure where geopolymer nanoclusters and Ni(OH)₂ nanocrystals were intergrowth on the g-C₃N₄ interface. The construction of this ternary system effectively enhanced the photogenerated electrons transfer efficiency, and synergized with the thermal effect to significantly improve CO₂ reduction efficiency. And the GCN demonstrated exceptional capture capabilities for both CO₂ and H₂. Under light irradiation, GCN exhibited non-thermal photochemical effect characteristics. Through the photo-assisted thermal catalysis synergistic action, the CO₂ conversion product rate reached 1057.89 mmol.g cat −1 .h −1 , which was 17,869.84 times and 1.16 times higher than those under pure photocatalysis and pure thermal catalysis, respectively. The corresponding CO selectivity can reach 96.05 %. And GCN exhibited stable photothermal cycling performance, the production rate in the 10th cycle still reached 970.28 mmol·g cat −1 ·h −1 . Moreover, the formation of chemical bonds at the geopolymer/Ni(OH)₂ interface effectively suppressed the excessive reduction of Ni(OH)₂ to metallic Ni 0 , thereby inhibiting deep hydrogenation of CO and ensuring high CO selectivity. This study provides both theoretical and technical foundations for the development of low-cost and high-efficiency CO₂ photothermal reduction catalysts.
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PROGRESS IN NEURO-PSYCHOPHARMACOLOGY & BIOLOGICAL PSYCHIATRY
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2014
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IF 4.025
Kai Wang,Siyuan Sun,Liping Li,Meijuan Tu,Huidi Jiang
Novel antidepressants or treatment strategies that may offer a more rapid onset of action, improved efficacy, and greater tolerability are in desperate need. Because current clinically utilized antidepressants, which target high-affinity transporters for serotonin and norepinephrine , fail to provide satisfactory treatment outcomes for quite a portion of patients. In recent investigations, a low-affinity but high-capacity transporter organic cation transporter 2 (OCT2, SLC22A2) has been proposed as an important postsynaptic determinant of aminergic tonus and mood-related behaviors , a complementary system to the high-affinity transporters. In order to evaluate whether OCT2 inhibition may at least in part contribute to the pharmacological effects of antidepressants, several typical antidepressant compounds of various mechanism categories were employed to inhibit OCT2 activity in cells stably overexpressing OCT2. The tested antidepressant agents included selective serotonin reuptake inhibitors (SSRIs, fluoxetine , sertraline and paroxetine), tricyclic antidepressants (TCAs, amitriptyline , imipramine , desipramine), monoamine oxidase inhibitor (MAOI, moclobemide), serotonin–norepinephrine reuptake inhibitor (SNRI, venlafaxine) and reported antidepressant alkaloid piperine . Piperine was screened through synaptosomes before cell experiments, without the interference of monoamine oxidase . All of the nine antidepressant compounds showed moderate inhibitory effects on OCT2-mediated metformin , serotonin and/or norepinephrine uptake. Sertraline and desipramine tended to inhibit OCT2 activity via a competitive mechanism. The fact could be easily belied, since passive diffusion dominated the influx process. It remains to be seen whether OCT2 inhibition plays a role to the overall therapeutic effects in clinical practice.
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Pharmaceutics
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2020
·Vol. 12
·期 2
·167
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IF 4.421
Yu Wang,Xu Bai,Bo Hu,Maochen Xing,Qi Cao,Aiguo Ji,Shuliang Song
Detailed knowledge of the intestinal transport of polymannuronic acid (PM) and polyguluronic acid (PG) is critical for understanding their biological activities. To investigate the transport in the gastrointestinal tract, PM and PG were chemically modified with tyramine and conjugated with fluorescein isothiocyanate (FITC) to synthesize FITC-PM (F-PM) and FITC-PG (F-PG) successfully. The transport mechanisms of F-PM and F-PG across the intestinal epithelial cell monolayers (Caco-2 cell monolayers) were then investigated. The results demonstrated that the transport of F-PM and F-PG into epithelial cells was time- and energy-dependent, which was mediated by the macropinocytosis pathway and the clathrin- and caveolae (or lipid raft)-mediated endocytic pathway. The transport process of F-PM and F-PG in Caco-2 cells depended on the acidification of endosomes and involved lysosomes. Tubulin mediated the transport of F-PM, but not of F-PG. Moreover, the absorption enhancer chitosan (CS) promoted the transport of F-PM and F-PG, increasing the apparent permeability coefficient (Papp) by 1.9-fold and 2.6-fold, respectively, by reversibly opening the tight junction (TJ). In summary, this study provided a comprehensive understanding of the transport of PM and PG in the small intestinal epithelial cells, which will provide a theoretical basis for the development of PM and PG with good intestinal absorption.Keywords:polymannuronic acid;polyguluronic acid;transport mechanisms;Caco-2 cell monolayers
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iScience
·
2023
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IF 5.8
Yao Li,Zi-Yu Liang,Hai-Lin Wang
Summary Red blood cells supply the oxygen required for all human cells and are in demand for emerging blood-loss therapy. Here we identified N6-methyl-2′-deoxyadenosine (6mdA) as an agonist that promotes the hyperproliferation of burst-forming unit erythroid (BFU-E) progenitor cells. In addition, 6mdA represses the apoptosis of erythroid progenitor cells (EPCs). Combined use of with SCF and EPO enabled cultures of isolated BFU-E to be expanded up to 5,000-fold. Transcriptome analysis showed that 6mdA upregulates the expression of the EPC-associated factors c-Kit, Myb, and Gata2 and downregulates that of the erythroid maturation-related transcription factors Gata1, Spi1, and Klf1. Mechanistic studies suggested that 6mdA enhances and prolongs the activation of erythropoiesis-associated master gene c-Kit and its downstream signaling, leading to expansion and accumulation of EPCs. Collectively, we demonstrate that 6mdA can efficiently stimulate the EPC hyperproliferation and provide a new regenerative medicine recipe to improve ex vivo generation of red blood cells.
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ANALYTICAL CHEMISTRY
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2025
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IF 6.7
Xue Gu,Xinyu Gou,Yan Jiang,Xiangquan Liu,Binbin Zhai,Ruijuan Wen,Zhiyan Ma,Yu Fang
3-Hydroxy-2-butanone (3H2B) is a key gaseous metabolite of Listeria monocytogenes, a potential lung cancer biomarker, and a widely used food flavoring agent, underscoring the demand for real-time monitoring solutions. In this study, we designed a salicylaldehyde-functionalized 1,8-naphthalimide derivative (NI-OH-CHO) and reacted it with 1,3,5-tri(4-aminophenyl)benzene (TAPB) at a liquid/liquid interface to synthesize fluorescent NI-TAPB nanofilms. Upon deprotonation, the nanofilms (NI-TAPB@F) exhibit a reversible and unprecedented fluorescence response to 3H2B. Leveraging this discovery, we developed a fluorescent 3H2B sensor with exceptional performance: ultrahigh sensitivity (detection limit: ∼ 1.8 ppb), rapid response (<8 s), outstanding selectivity, and remarkable stability at room temperature. These advantages stem from the rational design of binding sites and the porous structure of the nanofilms. Furthermore, visual 3H2B detection was achieved using the deprotonated films. Notably, the nanofilms are self-standing, self-adhesive, and flexible, enabling substrate-independent detection by eliminating interference from background color or emission. These properties also facilitate on-site qualitative and quantitative analysis. We anticipate this work will pave the way for the development of portable 3H2B detection devices.
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BIOTECHNOLOGY & BIOTECHNOLOGICAL EQUIPMENT
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2021
·
IF 1.632
Yingxue Liao,Zhijian Ni,Jinyong Wu,Zhongkui Li,Yuanfei Ge,Xiangsong Chen,Jianming Yao
2'-Fucosyllactose (2'-FL) is one of the most important oligosaccharides in human milk. In this study, a glucose–glycerol mixed carbon source and the deletion of the genes arcA and iclR were attempted for the first time in engineered Escherichia coli to improve 2'-FL production. The highest 2'-FL titre of 5.04 g/L, almost 1.4 times higher than that in the control strain, was obtained in the arcA mutant strain using shake-flask culture. In addition, the arcA mutant showed a significantly reduced accumulation of acetate. However, the deletion of iclR and the double deletion of arcA/iclR provided no benefit in terms of 2'-FL biosynthesis. Overall, these results suggest that deletion of arcA could efficiently increase the 2'-FL yield in E. coli and could lay a foundation for more efficient and larger-scale production. Moreover, in shake-flask culture under optimal conditions, the 2'-FL titer reached a maximum value of 7.14 g/L.
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ACS Sensors
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2025
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IF 9.1
Xinhua Zhao,Xiaxia Xing,Zhenxu Li,Yi Zhang,Zhu Zhang,Tingting Wang,Dachi Yang
In the emerging ammonia (NH3) economy, both olfactory and visual sensing are desired for leakage detection, in which olfactory sensing enables a fast response and wide detection range, while visual sensing ensures high selectivity. However, little is reported on the sensing material as a mediator to synergistically combine the dual-modality NH3 sensing. Here, Co3[Co(CN)6]2 microcubes (Co–CN MCBs) mediators have been developed for olfactory and visual dual-modality NH3 sensing. In olfactory sensing, porous chitosan-decorated Co3O4/Co3[Co(CN)6]2 microcages (CS@Co–O/Co–CN MCGs) have been obtained via [Co(CN)6]3–-governed self-assembly, glycerol-assisted reduction, and Kirkendall effect-driven hollowing. Beneficially, MCGs exhibit a 1 s fast response (500 ppm) and a 0.5–10,000 ppm wide detection range at room temperature. In visual sensing, colorimetric sensing paper (CSP) incorporated with anthocyanin, Co–CN, and poly(vinyl alcohol) has been achieved, which presents 10–320 ppm visual NH3 detection through a pink-to-brown transition. Further, highly selective NH3 sensing has been acquired through machine learning-powered classification of MCGs’ response and CSP’s specific NH3 chromogenic behavior. Notably, combining dual-modality sensing has achieved desired NH3 detection due to the boosted NH3 adsorption on Co–CN MCBs’ active sites and the synergistic effect of their-mediated heterostructures. Practically, our dual-modality sensing device has been integrated to detect NH3 with reliable responses.
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iScience
·
2025
·Vol. 29
·期 1
·
IF 4.1
Xue-Wu Chen,Xin-Yi Tong,Run-Min Tan,Jian-Ming Ouyang
This article explored the differences in pyroptosis mediated by calcium oxalate monohydrate (COM) crystals with sizes of 100 nm, 1 μm, 3 μm, 5 μm, and 10 μm and were used to induce pyroptosis of HK-2 cells. The proportion of pyroptosis cells was detected by caspase-1/PI double staining. Three small-sized COM crystals (0.1–3 μm) could be endocytosis by HK-2 cells and increased intracellular oxidative stress, which further promoted the activation of NLRP3 inflammasome and pyroptosis. The two COM crystals with large sizes (3–10 μm) were difficult to endocytose, and the main mechanism was the crystal adhesion, leading to pyroptosis. Crystal endocytosis leads to higher pyroptosis. The pyroptosis rates mediated by COM with different sizes were as follows: COM-100nm (17.81%) > COM-1μm (17.28%) > COM-3μm (17.25%) > COM-5μm (12.44%) > COM-10μm (9.05%). The smaller the COM crystal size, the higher the pyroptosis rate, which is related to the stronger oxidative stress.
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