Linear contact model. by Qingwen Li (1510687)

“…As the coal gangue replacement rate increases, both the strength and elastic modulus of the specimens decrease. …”

Numerical simulation scheme. by Qingwen Li (1510687)

“…As the coal gangue replacement rate increases, both the strength and elastic modulus of the specimens decrease. …”

Principle of FLAC-PFC coupling calculation. by Qingwen Li (1510687)

“…As the coal gangue replacement rate increases, both the strength and elastic modulus of the specimens decrease. …”

Compressive strength of FRP confined CGC. by Qingwen Li (1510687)

“…As the coal gangue replacement rate increases, both the strength and elastic modulus of the specimens decrease. …”

14 Elastic modulus of FRP confined CGC. by Qingwen Li (1510687)

“…As the coal gangue replacement rate increases, both the strength and elastic modulus of the specimens decrease. …”

FRP sheets wrapped specimen. by Qingwen Li (1510687)

“…As the coal gangue replacement rate increases, both the strength and elastic modulus of the specimens decrease. …”

The schematic of the mechanism of action. by Qingwen Li (1510687)

“…As the coal gangue replacement rate increases, both the strength and elastic modulus of the specimens decrease. …”

Coal gangue concrete specimens. by Qingwen Li (1510687)

“…As the coal gangue replacement rate increases, both the strength and elastic modulus of the specimens decrease. …”

Elastic modulus of FRP confined CGC. by Qingwen Li (1510687)

“…As the coal gangue replacement rate increases, both the strength and elastic modulus of the specimens decrease. …”

GFRP confined concrete specimens. by Qingwen Li (1510687)

“…As the coal gangue replacement rate increases, both the strength and elastic modulus of the specimens decrease. …”

13 Compressive strength of FRP confined CGC. by Qingwen Li (1510687)

“…As the coal gangue replacement rate increases, both the strength and elastic modulus of the specimens decrease. …”

Projected ASIR and ASMR of LC in China over the next 15 years based on the Bayesian APC model. by Ze-Xing Zhang (18074512)

Subjects:

Contribution of changes in population aging, population growth, and age-specific incidence rate to changes in incident cases of LC from 2004 to 2018 in China. by Ze-Xing Zhang (18074512)

Subjects:

Particle distribution curve: (a) Fine sand; (b) Coarse sand. by YongHe Liu (20477123)

Subjects:

A schematic mechanism of 1’,4’-<i>trans</i>-diol-ABA in response to salt stress in rice seedlings. by Yin Jie (21464235)

Subjects:

Oscillogram (bottom) and sound spectrogram (top) of <i>Physalaemus cicada</i> (A, B), <i>Scinax pachycrus</i> (C, D), and <i>Scinax x-signatus</i> (E, F). by Rogério Ferreira de Oliveira (11133750)

Subjects:

A) CaCO₃ content versus number of treatments; B) UCS versus calcium carbonate content; C) permeability coefficient versus calcium carbonate content. by Jin Zhu (164147)

Subjects:

Training impact on electrical properties of P3 lumbar MNs. Rin: input resistance. Rheobase: lowest intensity of current injected in MNs to elicit an action potential (AP). AP threshold: voltage measured at the foot of the AP. AP amplitude: measured between the resting membrane potential and the AP peak. AP half width: time spent by the potential > 50% of the AP maximum amplitude. AP rise time: time spent by the potential between 10% and 90% of the AP maximum amplitude. AP half decay time: time spent by the potential between the AP maximum amplitude and the 50% decreasing amplitude. ADP: after-depolarization potential. All values are means ± SEM. The number of MNs recorded is indicated between brackets. ns: no significantly different.... by Camille Quilgars (21156495)

“…All values are means ± SEM. The number of MNs recorded is indicated between brackets. ns: no significantly different. …”

Reinforced sample destruction mode. by Xiaoyan Ding (291429)

Subjects:

One-dimensional sand column test conditions. by Xiaoyan Ding (291429)

Subjects: