Data of experiment and numerical results. by Changxi Shan (22493205)

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Circumferential stress nephogram of ABR pipe. by Changxi Shan (22493205)

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Comparison of finite element simulation and experiment results. by Changxi Shan (22493205)

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Circumferential stress in ABR pipe with different thicknesses. by Changxi Shan (22493205)

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ABR pipe backfill. by Changxi Shan (22493205)

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Mohr-Coulomb strength theory model. by Changxi Shan (22493205)

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ABR pipe axial stress. by Changxi Shan (22493205)

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Location-2 loading circumferential stress experiment results. by Changxi Shan (22493205)

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Stress-strain and ring stiffness curves of ABR pipes. by Changxi Shan (22493205)

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The performance parameters of ABR pipe. by Changxi Shan (22493205)

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Effects of traffic loading on buried ABR pipe. by Changxi Shan (22493205)

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ABR pipe circumferential stress at location-1 loading. by Changxi Shan (22493205)

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NS restores macrophage autophagy and alleviates the progression of atherosclerosis by inhibiting the PI3K/Akt/mTOR pathway. by Yihua Wang (491766)

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Graded loading creep stress loading level. by Dengke Yang (842532)

“…The results reveal that (1) freeze-thaw cycles exert a significant influence on the rock’s creep behavior, with axial strain, instantaneous strain, and creep strain increasing progressively with the number of freeze-thaw cycles; (2) dual-fractured rock samples with varying fracture angles exhibit distinct differences in creep phenomena, where increased fracture angles result in pronounced increases in instantaneous and creep strains, and higher horizontal stress levels lead to greater strain generation; (3) all rock samples with different pre-existing fractures exhibit rock bridge breakthrough during creep failure, and the variation in fracture angle affects the failure mode; (4) and the long-term strength of the rock varies with changes in fracture angle and freeze-thaw cycle frequency, showing an increasing trend with greater fracture angles but a rapid decrease with increasing freeze-thaw cycles. …”

Schematic diagram of rock samples. by Dengke Yang (842532)

“…The results reveal that (1) freeze-thaw cycles exert a significant influence on the rock’s creep behavior, with axial strain, instantaneous strain, and creep strain increasing progressively with the number of freeze-thaw cycles; (2) dual-fractured rock samples with varying fracture angles exhibit distinct differences in creep phenomena, where increased fracture angles result in pronounced increases in instantaneous and creep strains, and higher horizontal stress levels lead to greater strain generation; (3) all rock samples with different pre-existing fractures exhibit rock bridge breakthrough during creep failure, and the variation in fracture angle affects the failure mode; (4) and the long-term strength of the rock varies with changes in fracture angle and freeze-thaw cycle frequency, showing an increasing trend with greater fracture angles but a rapid decrease with increasing freeze-thaw cycles. …”

Rock mechanics testing machine. by Dengke Yang (842532)

“…The results reveal that (1) freeze-thaw cycles exert a significant influence on the rock’s creep behavior, with axial strain, instantaneous strain, and creep strain increasing progressively with the number of freeze-thaw cycles; (2) dual-fractured rock samples with varying fracture angles exhibit distinct differences in creep phenomena, where increased fracture angles result in pronounced increases in instantaneous and creep strains, and higher horizontal stress levels lead to greater strain generation; (3) all rock samples with different pre-existing fractures exhibit rock bridge breakthrough during creep failure, and the variation in fracture angle affects the failure mode; (4) and the long-term strength of the rock varies with changes in fracture angle and freeze-thaw cycle frequency, showing an increasing trend with greater fracture angles but a rapid decrease with increasing freeze-thaw cycles. …”

CaSki cells functionally express VDR and RXR. by Euclides Avila (41023)

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Biological processes activated and suppressed, along with associated genes, induced by calcitriol treatment in CaSki cervical cancer cells. by Euclides Avila (41023)

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Calcitriol inhibits CaSki cell migration and suppresses MMP7 and MMP13 gene expression. by Euclides Avila (41023)

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Differentially expressed mature microRNAs in CaSki cells modulated by calcitriol, with fold change thresholds of ≥ 1.5 or ≤ -1.5. by Euclides Avila (41023)

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