Actuation of a Nonconductive Droplet in an Aqueous Fluid by Reversed Electrowetting Effect by Qinggong Wang (9094017)

“…However, the opposite phenomenon, e.g., decreasing the wettability of a nonconductive droplet and increasing its contact angle (CA) by the reversed electrowetting (REW) effect, has been scarcely reported. …”

Actuation of a Nonconductive Droplet in an Aqueous Fluid by Reversed Electrowetting Effect by Qinggong Wang (9094017)

“…However, the opposite phenomenon, e.g., decreasing the wettability of a nonconductive droplet and increasing its contact angle (CA) by the reversed electrowetting (REW) effect, has been scarcely reported. …”

Actuation of a Nonconductive Droplet in an Aqueous Fluid by Reversed Electrowetting Effect by Qinggong Wang (9094017)

“…However, the opposite phenomenon, e.g., decreasing the wettability of a nonconductive droplet and increasing its contact angle (CA) by the reversed electrowetting (REW) effect, has been scarcely reported. …”

Actuation of a Nonconductive Droplet in an Aqueous Fluid by Reversed Electrowetting Effect by Qinggong Wang (9094017)

“…However, the opposite phenomenon, e.g., decreasing the wettability of a nonconductive droplet and increasing its contact angle (CA) by the reversed electrowetting (REW) effect, has been scarcely reported. …”

Actuation of a Nonconductive Droplet in an Aqueous Fluid by Reversed Electrowetting Effect by Qinggong Wang (9094017)

“…However, the opposite phenomenon, e.g., decreasing the wettability of a nonconductive droplet and increasing its contact angle (CA) by the reversed electrowetting (REW) effect, has been scarcely reported. …”

Negative thermotactic behavior is also reproduced by a variety of neuroanatomical models. by Muneki Ikeda (5166362)

Activity of a thermosensory neuron AFD designates steering curvature of locomotion. by Muneki Ikeda (5166362)

Effect of HPMC/GSNO on tumor necrosis factor alpha (TNF-α; A), RANK (B) and on the ratio RANKL/OPG (C) mRNA levels in experimental periodontitis in rats. by Conceição S. Martins (468492)

A Jump model for neonatal sepsis incidence trend patterns at JMC, Ethiopia. by Daniel Geleta (17328210)

Correct responses (Rationalized Arcsin Units) as a function of TMR in Experiment I. by Cosima Lanzilotti (14204350)

Gene amplification and deletion in <i>L. tarentolae</i> A150.1. by Gaétan Roy (187604)

Datasheet1_“He told me my pain was in my head”: mitigating testimonial injustice through peer support.pdf by Marie Vigouroux (15774494)

“…Through individual interviews consisting of open-ended questions, the researchers gathered narrative data from Curvy Girls members, a community-based peer support group for girls and young women living with scoliosis. …”

AICc model selection analysis of linear regressions (models presented: ΔAICc <5) describing Pacific wren territory size, countersinging rate, and body condition response variables... by Kirsten A. Wilcox (11099051)

Relationship between absolute male wren density at each stream site and the individual male wren proportional rate of countersinging (countersinging divided by total singing bouts... by Kirsten A. Wilcox (11099051)

Fig 1 - by Kirsten A. Wilcox (11099051)

Odds ratio of habitat selection by territorial male wrens compared to habitat vegetation characteristics and stream-level spawning salmon biomass from the top AIC model. by Kirsten A. Wilcox (11099051)

AIC model selection from the logistic regression models for probability of habitat selection by territorial male wrens (models presented: ΔAIC <5). by Kirsten A. Wilcox (11099051)

Relationship between salmon biomass per stream and absolute male Pacific wren density in the surrounding forest plot. by Kirsten A. Wilcox (11099051)

Relationship between the spawning salmon biomass at each stream and male wren territory size in surrounding habitat. by Kirsten A. Wilcox (11099051)

Resource selection probability plots for important predictor variables for the top model of probability of territorial use by male wrens. by Kirsten A. Wilcox (11099051)