Search

Your search keyword '"Xie, Lulin"' showing total 36 results
Start Over Author "Xie, Lulin"
36 results on '"Xie, Lulin"'

20. Single‐cell RNA sequencing reveals the effects of capsaicin in the treatment of sepsis‐induced liver injury

Author

Zhang, Qian, primary, Liu, Jing, additional, Shen, Jing, additional, Ou, Jinhuan, additional, Wong, Yin Kwan, additional, Xie, Lulin, additional, Huang, Jingnan, additional, Zhang, Chunting, additional, Fu, Chunjin, additional, Chen, Junhui, additional, Chen, Jiayun, additional, He, Xueling, additional, Shi, Fei, additional, Luo, Piao, additional, Gong, Ping, additional, Liu, Xueyan, additional, and Wang, Jigang, additional

Published
2023
Full Text
View/download PDF

24. Single‐nucleus RNA sequencing unveils critical regulators in various hippocampal neurons for anti‐N‐methyl‐D‐aspartate receptor encephalitis

Author

Bai, Yunmeng, primary, Liu, Zhuhe, additional, Qian, Tinglin, additional, Peng, Yu, additional, Ma, Huan, additional, Hu, Hong, additional, Cheng, Guangqing, additional, Wen, Haixia, additional, Xie, Lulin, additional, Zheng, Dong, additional, Geng, Qingshan, additional, Wang, Jigang, additional, and Wang, Honghao, additional

Published
2023
Full Text
View/download PDF

25. Design and fabrication of NiFe2O4/few-layers WS2 composite for supercapacitor electrode material.

Author

Gao, Xicheng, Bi, Jianqiang, Xie, Lulin, and Liu, Chen

Abstract

Few-layers WS2 was obtained through unique chemical liquid exfoliation of commercial WS2. Results showed that after the exfoliation process, the thickness of WS2 reduced significantly. Moreover, the NiFe2O4 nanosheets/WS2 composite was successfully synthesized through a facile hydrothermal method at 180 °C, and then proven by the analyses of field emission scanning electron microscopy, X-ray diffraction, and X-ray photoelectron spectroscopy. The composite showed a high specific surface area of 86.89 m2·g−1 with an average pore size of 3.13 nm. Besides, in the three-electrode electrochemical test, this composite exhibited a high specific capacitance of 878.04 F·g−1 at a current density of 1 A·g−1, while in the two-electrode system, the energy density of the composite could reach 25.47 Wh·kg−1 at the power density of 70 W·kg−1 and maintained 13.42 Wh·kg−1 at the higher power density of 7000 W·kg−1. All the excellent electrochemical performances demonstrate that the NiFe2O4 nanosheets/WS2 composite is an excellent candidate for supercapacitor applications. [ABSTRACT FROM AUTHOR]

Published
2023
Full Text
View/download PDF

26. Additional file 1 of Single-cell transcriptome analysis reveals liver injury induced by glyphosate in mice

Author

Wu, Jiangpeng, Sun, Xiuping, Wu, Chunyi, Hong, Xiaoping, Xie, Lulin, Shi, Zixu, Zhao, Liang, Du, Qingfeng, Xiao, Wei, Sun, Jichao, and Wang, Jigang

Abstract

Additional file 1: Fig. S1. Quality control for scRNA-seq. (A) Criteria for the degree of necrosis (left). Histopathological evaluation for all samples (right). (B) Consistency (nFeature_RNA, nCount_RNA, percent.mt) of cell capture and identification for each sample (left) and the two groups (right) after scRNA-seq data quality control. nFeature_RNA, nCount_RNA and percent.mt represent the number of genes, the number of transcripts and the percentage of mitochondrial genes of each cell, respectively. Fig. S2. Single-cell analysis of 13 major cell lineages. (A) UMAP showing all clusters from the control and GLY-treated groups. (B) Merged UMAP plot for all samples. (C) Heatmap of top 100 DEGs for major cell types. (D) Distribution comparison of the major cell clusters between the control and GLY-treated groups. (E) Histograms depicting the proportional changes of each cell type for individual samples (left) and the combined control and GLY-treated samples (right). Fig. S3. Single-cell analysis of HSCs. (A) UMAP showing all subclusters of HSCs from the control and GLY-treated groups. (B) Merged UMAP plot for all samples. (C) Proportional changes of each cell subtype for the two groups. (D) Pseudotime trajectory analysis implying the development of HSC subtypes. (E) Histogram displaying the proportional changes of the two groups under different states during the pseudotime analysis. (F) Violin plots showing the cell-cycle-related genes of each HSC subtypes. Fig. S4. Single-cell analysis of hepatocytes. (A) UMAP showing hepatocytes composed of three subclusters from the control and GLY-treated groups. (B) Merged UMAP plot for hepatocytes of all samples. (C) UMAP depicting the distribution of hepatocyte subclusters from the control and GLY-treated groups. (D) Histogram displaying the proportional changes of each subtype for every sample. (E) Boxplot of ROS score for the two groups. P value is from wilcox.test (unpaired and two-tailed); *P < 0.05. Fig. S5. Single-cell analysis of KCs. (A) UMAP showing all subclusters of KCs from the control and GLY-treated groups. (B) Dotplot showing the expression of representative markers in each KC subcluster. (C) Merged UMAP plot for all samples. (D) Histogram demonstrating the proportional changes of each KC subcluster for each sample. (E) UMAP displaying the distribution of each KC subcluster from the control and GLY-treated groups. (F) Boxplot of phagocytosis score for the two groups. P value is from wilcox.test (unpaired and two-tailed); ***P < 0.001, **P < 0.01, *P < 0.05. (G) Boxplot of ROS score for the two groups. P value is from wilcox.test (unpaired and two-tailed); ***P < 0.001. (H) Violin plots showing the expression levels of Cd68 genes for two groups in all cell clusters. Fig. S6. Single-cell analysis of LCMs. (A) UMAP showing the cell subclusters of LCMs from the control and GLY-treated groups. (B) Merged UMAP plot for all the samples. (C) Histogram visualizing the proportional changes of each LCM subtype for each sample. (D) Heatmap of all DEGs for the three LCM subtypes (left) and their corresponding functional enrichment analysis (right). (E) Venn diagram for the downregulated genes of each LCM subcluster after GLY treatment. (F) UMAP showing the expression level of Spp1 in LCM subtypes of the two groups. (G) Boxplot of inflammatory response score for the two groups. (H) Boxplot of ROS score for the two groups. P value is from wilcox.test (unpaired and two-tailed); **P < 0.01. (I) Heatmap displaying the differentially expressed cytokines in each LCM subtype after GLY treatment. Fig. S7. Cell–cell communication analysis for major cell clusters. (A) The overall networks of cell–cell communication within different cell types for control and GLY groups. (B) The interaction strength of each cell type for control and GLY groups. (C) The change for SPP1 signaling pathway network after GLY treatment. (D) Detailed ligand–receptor interactions of the SPP1 signaling pathway for LCM cells. (E) Signaling pathways presented only in the GLY group. (F) Upregulated and downregulated signaling after GLY treatment. Fig. S8. Cell–cell communication analysis. (A) Histogram showing the numbers of inferred interactions and interaction strength of the control and GLY-treated groups. (B) Chord diagram exhibiting the numbers of inferred interactions of LCMs and KCs for the two groups. (C) Histogram displaying the relative information flow of the two groups. (D) Dotplot depicting the ligand–receptor pairs between LCMs and major cell lineages. (E) Chord diagram demonstrating the signaling pathways present only in the control group. (F) Violin plots showing the expression levels of ligand–receptor genes of the Spp1 signaling pathway for major cell lineages.

Published
2023
Full Text
View/download PDF

33. Sulfur-doped carbon coating on K2Ti6O13 nanowires as anode of sodium ion batteries.

Author

Wang, Jingyu, Bi, Jianqiang, Wang, Weili, Xing, Zheng, Leng, Mingzhe, and Xie, LuLin

Subjects
SODIUM ions, SURFACE coatings, NANOWIRES, ANODES, FULVIC acids, POTASSIUM, TITANATES
Abstract

In this work, we synthesized K2Ti6O13 nanowires coated with sulfur-doped carbon for the first time, with fulvic acid and cystine as the carbon source, which exhibit higher capacity and rate performance compared with pure potassium titanate. Via analyzing the cyclic voltammetry curves obtained at different scan rates, it is revealed that the capacity increase is due to the improved ion diffusivity induced by the carbon coating. Moreover, cystine is demonstrated to be a better carbon source than fulvic acid. [ABSTRACT FROM AUTHOR]

Published
2021
Full Text
View/download PDF

34. High entropy spinel oxides (CrFeMnNiCox)3O4(x = 2, 3, 4) nanoparticles as anode material towards electrochemical properties

Author

Liu, Chen, Bi, Jianqiang, Xie, Lulin, Gao, Xicheng, and Rong, Jiacheng

Abstract

The newly discovered inorganic material termed “high-entropy oxides” (HEOs) nanoparticles are made up of diverse metal elements and possesses a single-phase structure. HEOs nanoparticles exhibit numerous advantageous features, including high specific capacity, exceptional cycling performance, remarkable structural stability, and super electronic conductivity. Consequently, HEOs nanoparticles have garnered attention for their potential as electrode materials for lithium-ion batteries (LIBs). It is essential to develop HEOs utilizing a range of component-metal elements and thoroughly explore their properties. Transition metal oxides that contain Co have exhibited exceptional electrochemical performance. However, high entropy oxides nanoparticles have the potential to exceed the electrochemical performance of other materials by combining different components. Therefore, to leverage the “cocktail effect” of high entropy materials, we increased the Co content in high entropy oxides and synthesized three sets of high entropy spinel oxides (CrFeMnNiCox)3O4(x = 2, 3, 4) nanoparticles using the solution combustion method. The results show that the three obtained samples have uniform particle size distribution. The reversible capacities at 200 mA·g−1for (CrFeMnNiCo2)3O4, (CrFeMnNiCo3)3O4and (CrFeMnNiCo4)3O4anodes are 467.8 mAh·g−1, 574.1 mAh·g−1and 506.2 mAh·g−1, respectively. With an increase in the current density, the three sets of samples show gradual changes in their capacities. The high entropy oxides (HEOs) nanoparticles exhibit exceptional cycle stability and rate capability when used as the anode of LIBs. This study proposes a novel approach to create high-entropy energy storage materials, opening up possibilities for future material design.

Published
2023
Full Text
View/download PDF

35. Design and fabrication of NiFe2O4/few-layers WS2composite for supercapacitor electrode material

Author

Gao, Xicheng, Bi, Jianqiang, Xie, Lulin, and Liu, Chen

Abstract

Few-layers WS2was obtained through unique chemical liquid exfoliation of commercial WS2. Results showed that after the exfoliation process, the thickness of WS2reduced significantly. Moreover, the NiFe2O4nanosheets/WS2composite was successfully synthesized through a facile hydrothermal method at 180 °C, and then proven by the analyses of field emission scanning electron microscopy, X-ray diffraction, and X-ray photoelectron spectroscopy. The composite showed a high specific surface area of 86.89 m2·g−1with an average pore size of 3.13 nm. Besides, in the three-electrode electrochemical test, this composite exhibited a high specific capacitance of 878.04 F·g−1at a current density of 1 A·g−1, while in the two-electrode system, the energy density of the composite could reach 25.47 Wh·kg−1at the power density of 70 W·kg−1and maintained 13.42 Wh·kg−1at the higher power density of 7000 W·kg−1. All the excellent electrochemical performances demonstrate that the NiFe2O4nanosheets/WS2composite is an excellent candidate for supercapacitor applications.

Published
2023
Full Text
View/download PDF

Catalog

Books, media, physical & digital resources
See catalog results