Loading and organ culturing apparatuses for the rabbit IVD motion segments (diagrammatic sketch). by Jia-Wen Zhan (9028652)

Rho activity is required for WPMY-1 fibronectin induction. by Alana L. Gray (637670)

Buffalo Ford Lake (BF19) pollen percentages. by John A. F. Wendt (19976392)

“…Analysis of a set of fecal steroids from herbivore dung (Δ⁵-sterols, 5α-stanols, 5β-stanols, epi5β-stanols, stanones, and bile acids) differentiated moose, pronghorn, and mule deer, whereas bison and elk were partially differentiated. …”

Ungulate dung bile acid concentrations. by John A. F. Wendt (19976392)

“…Analysis of a set of fecal steroids from herbivore dung (Δ⁵-sterols, 5α-stanols, 5β-stanols, epi5β-stanols, stanones, and bile acids) differentiated moose, pronghorn, and mule deer, whereas bison and elk were partially differentiated. …”

Compound information for analyzed fecal steroids. by John A. F. Wendt (19976392)

“…Analysis of a set of fecal steroids from herbivore dung (Δ⁵-sterols, 5α-stanols, 5β-stanols, epi5β-stanols, stanones, and bile acids) differentiated moose, pronghorn, and mule deer, whereas bison and elk were partially differentiated. …”

Fig 5 - by Ursula Oggenfuss (7254932)

Functional homogeneity of the visualized six motifs. by Mohammad R. Irhimeh (614626)

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Schematic diagram showing the study experimental design, the integrative computational analysis, and the validation procedures used in this study. by Mohammad R. Irhimeh (614626)

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Heat maps of the microarray analysis results. by Mohammad R. Irhimeh (614626)

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Six interesting co-regulatory motifs suggesting a cooperative functional role between the identified central-hubs and their potential partners of miRNAs, TFs, and target genes in t... by Mohammad R. Irhimeh (614626)

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Venn diagrams showing overlapping differentially expressed genes among the six comparisons. by Mohammad R. Irhimeh (614626)

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Roll angle (2^st case–v₃). by Tuan Anh Nguyen (121944)

“…The interaction between the road and wheel decreases sharply as the roll angle increases, which can lead to a rollover. …”

Vertical force (1^st case–v₃). by Tuan Anh Nguyen (121944)

“…The interaction between the road and wheel decreases sharply as the roll angle increases, which can lead to a rollover. …”

Roll index (1^st case–v₁). by Tuan Anh Nguyen (121944)

“…The interaction between the road and wheel decreases sharply as the roll angle increases, which can lead to a rollover. …”

Vertical force (1^st case–v₁). by Tuan Anh Nguyen (121944)

“…The interaction between the road and wheel decreases sharply as the roll angle increases, which can lead to a rollover. …”

Roll index (2^st case–v₂). by Tuan Anh Nguyen (121944)

“…The interaction between the road and wheel decreases sharply as the roll angle increases, which can lead to a rollover. …”

Roll angle (1^st case–v₂). by Tuan Anh Nguyen (121944)

“…The interaction between the road and wheel decreases sharply as the roll angle increases, which can lead to a rollover. …”

Vertical force (2^st case–v₁). by Tuan Anh Nguyen (121944)

“…The interaction between the road and wheel decreases sharply as the roll angle increases, which can lead to a rollover. …”

Roll index (2^st case–v₃). by Tuan Anh Nguyen (121944)

“…The interaction between the road and wheel decreases sharply as the roll angle increases, which can lead to a rollover. …”

Roll index (2^st case–v₁). by Tuan Anh Nguyen (121944)

“…The interaction between the road and wheel decreases sharply as the roll angle increases, which can lead to a rollover. …”