Data Sheet 1_Increasing donor kidney age significantly aggravates the negative effect of pretransplant donor-specific anti-HLA antibodies on kidney graft survival.pdf by Michiel G. H. Betjes (8407413)

“…The incidence of ABMR was not associated with donor kidney age. However, increasing donor kidney age significantly aggravated the negative effect of preDSA on graft survival. …”

Ni causes a decrease in membrane sterols in A549 lung epithelial cells. by Amber R. Matha (19681603)

ERI Thresholds Between Adjacent Zones. by Mingyue Sun (4638535)

“…The thresholds of the ERI in the oasis zone-transition zone and the transition zone-desert zone were 0.08–0.085 and 0.111–0.118, respectively. (2) Socioeconomic factors, including infrastructure expansion, population density, and GDP, were dominant influences, contributing 64% to the ERI, whereas the influence of natural factors such as climate declined. (3) The low-ERI areas increased by 3.3% under government control, and the transition zones increased significantly, slowing the growth rate of the oasis zone. …”

Location of the study area. by Mingyue Sun (4638535)

“…The thresholds of the ERI in the oasis zone-transition zone and the transition zone-desert zone were 0.08–0.085 and 0.111–0.118, respectively. (2) Socioeconomic factors, including infrastructure expansion, population density, and GDP, were dominant influences, contributing 64% to the ERI, whereas the influence of natural factors such as climate declined. (3) The low-ERI areas increased by 3.3% under government control, and the transition zones increased significantly, slowing the growth rate of the oasis zone. …”

Random Forest structure with cross-validation. by Mingyue Sun (4638535)

“…The thresholds of the ERI in the oasis zone-transition zone and the transition zone-desert zone were 0.08–0.085 and 0.111–0.118, respectively. (2) Socioeconomic factors, including infrastructure expansion, population density, and GDP, were dominant influences, contributing 64% to the ERI, whereas the influence of natural factors such as climate declined. (3) The low-ERI areas increased by 3.3% under government control, and the transition zones increased significantly, slowing the growth rate of the oasis zone. …”

Land use change from 1990 to 2020. by Mingyue Sun (4638535)

“…The thresholds of the ERI in the oasis zone-transition zone and the transition zone-desert zone were 0.08–0.085 and 0.111–0.118, respectively. (2) Socioeconomic factors, including infrastructure expansion, population density, and GDP, were dominant influences, contributing 64% to the ERI, whereas the influence of natural factors such as climate declined. (3) The low-ERI areas increased by 3.3% under government control, and the transition zones increased significantly, slowing the growth rate of the oasis zone. …”

Geographic data. by Mingyue Sun (4638535)

“…The thresholds of the ERI in the oasis zone-transition zone and the transition zone-desert zone were 0.08–0.085 and 0.111–0.118, respectively. (2) Socioeconomic factors, including infrastructure expansion, population density, and GDP, were dominant influences, contributing 64% to the ERI, whereas the influence of natural factors such as climate declined. (3) The low-ERI areas increased by 3.3% under government control, and the transition zones increased significantly, slowing the growth rate of the oasis zone. …”

Classification accuracy. by Mingyue Sun (4638535)

“…The thresholds of the ERI in the oasis zone-transition zone and the transition zone-desert zone were 0.08–0.085 and 0.111–0.118, respectively. (2) Socioeconomic factors, including infrastructure expansion, population density, and GDP, were dominant influences, contributing 64% to the ERI, whereas the influence of natural factors such as climate declined. (3) The low-ERI areas increased by 3.3% under government control, and the transition zones increased significantly, slowing the growth rate of the oasis zone. …”

Correlation analysis, Data show only the values of the correlations that were significant (p < 0.05). by Glaucia Vilar-Pereira (686134)

Wenn diagram of bacterial community in rhizosphere soil of continuous cropping passion fruit. by Weiwei Lin (2442850)

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The differences in total abundance of bacteria and fungi in rhizosphere soil of passion fruit with different growth years. by Weiwei Lin (2442850)

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The heat map analysis of rhizosphere soil dominant bacterial communities at the genus level in passion fruit with different growth years. by Weiwei Lin (2442850)

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Bacterial community information at the genus level in the rhizosphere soil of continuous monocropping passion fruit plants. by Weiwei Lin (2442850)

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Variation in the content of phenolic acids in rhizosphere soil of continuously monocultured passion fruit plants. by Weiwei Lin (2442850)

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The content of rhizosphere soil enzymes in passion fruit with different growth years. by Weiwei Lin (2442850)

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Basic physicochemical properties of rhizosphere soil of continuous cropping passion fruit. by Weiwei Lin (2442850)

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The differences in the structural composition of rhizosphere soil bacterial communities of passion fruit with different growth years. by Weiwei Lin (2442850)

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The effect of continuous monocropping of passion fruit plant on rhizosphere soil enzyme activity. by Weiwei Lin (2442850)

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The chessboard scoring of rhizosphere soil bacterial colonies in passion fruit with different growth years. by Weiwei Lin (2442850)

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In situ analysis of total bacteria and fungi in the rhizosphere soil of passion fruit under continuous monocropping treatment. by Weiwei Lin (2442850)

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