Empirical attack resilience: (a) Grinding success decreases exponentially with VDF constraints; (b) Adaptive corruption fails due to rotating committees. by Saha Reno (22075303)

Pseudo code for coupling model execution process. by Jintao Li (448681)

“…However, runoff formation is a complex process influenced by various natural and anthropogenic factors, resulting in nonlinearity, nonstationarity, and long prediction periods, which complicate forecasting efforts. …”

Flow diagram of the study selection process. by Cong Ding (3726178)

Root Cause Analysis using 5 Whys: first, clearly define the problem that needs resolution. by Mohammad Bakhtiari (11838264)

Flowsheet of the experimental process. by Nian Liu (29935)

“…Additionally, the smelting process produces a significant amount of brown corundum fly dust (BCFD) with a low utilization rate, resulting in resource wastage. …”

Standardized processing results. by Hao Li (31608)

Time and spatial sensitivity to process changes. by Ariel Burman (20329776)

Process for the gamma irradiation, extraction, and analysis of vitamin D in finfish. by Jessica S. Brown (15021996)

Study selection process. by Xiao-Chai Lv (22378891)

Screening process diagram. by Wentao Yang (205781)

Methods for Carbon Mass Closure in Polyolefin Hydrocracking by Anna E. Brenner (13906458)

“…Heterogeneous catalytic hydrocracking of polyolefins is a promising approach for the processing of postconsumer plastics, but product quantification methods remain inconsistent across the literature. …”

nsP4-C483Y or Q192L mutations decrease sensitivity to 4′-FlU. by Peiqi Yin (6533747)

Visual representations of the event log using different notations and process discovery algorithms: A) Heuristics Net, B) Process Tree, C) BPMN, and D) Petri Net, E) DFG. by Mohammad Bakhtiari (11838264)

Analyzing the event log reveals that A) Therapist chart checks take a long time to complete, B) specific notations for treatment techniques are infrequently used and may be redunda... by Mohammad Bakhtiari (11838264)

Fig 6 Data. by Feng Wang (44414)

“…The results indicate that as the interlayer thickness or inclination increases, the peak strength and elastic modulus of the specimens gradually decrease. Specifically, under the influence of interlayer thickness, the peak strength and elastic modulus decrease by 38.27% and 68.69%, respectively, while under the influence of interlayer inclination, they decrease by 51.28% and 8.47%, respectively. …”

Fig-14 Data. by Feng Wang (44414)

“…The results indicate that as the interlayer thickness or inclination increases, the peak strength and elastic modulus of the specimens gradually decrease. Specifically, under the influence of interlayer thickness, the peak strength and elastic modulus decrease by 38.27% and 68.69%, respectively, while under the influence of interlayer inclination, they decrease by 51.28% and 8.47%, respectively. …”

Fig 7 Data. by Feng Wang (44414)

“…The results indicate that as the interlayer thickness or inclination increases, the peak strength and elastic modulus of the specimens gradually decrease. Specifically, under the influence of interlayer thickness, the peak strength and elastic modulus decrease by 38.27% and 68.69%, respectively, while under the influence of interlayer inclination, they decrease by 51.28% and 8.47%, respectively. …”

Model establishment in PFC2D. by Feng Wang (44414)

“…The results indicate that as the interlayer thickness or inclination increases, the peak strength and elastic modulus of the specimens gradually decrease. Specifically, under the influence of interlayer thickness, the peak strength and elastic modulus decrease by 38.27% and 68.69%, respectively, while under the influence of interlayer inclination, they decrease by 51.28% and 8.47%, respectively. …”

Fig 4 Data. by Feng Wang (44414)

“…The results indicate that as the interlayer thickness or inclination increases, the peak strength and elastic modulus of the specimens gradually decrease. Specifically, under the influence of interlayer thickness, the peak strength and elastic modulus decrease by 38.27% and 68.69%, respectively, while under the influence of interlayer inclination, they decrease by 51.28% and 8.47%, respectively. …”

Fig 11 Data. by Feng Wang (44414)

“…The results indicate that as the interlayer thickness or inclination increases, the peak strength and elastic modulus of the specimens gradually decrease. Specifically, under the influence of interlayer thickness, the peak strength and elastic modulus decrease by 38.27% and 68.69%, respectively, while under the influence of interlayer inclination, they decrease by 51.28% and 8.47%, respectively. …”