Fluidity in Women's Sexuality

Sexual fluidity has been proposed as a key component of women’s sexuality. However, not all women acknowledge or experience fluidity in their sexual attractions and behaviors. Because this is the case, what proportion of women are experiencing sexual fluidity? Research has concluded that a “sizeable minority” of women are experiencing sexual fluidity, with the highest levels found among those that identify as a sexual minority. Furthermore, certain individual differences have been found to be associated with a heightened (or weakened) likelihood of experiencing or embracing sexual fluidity. Through extensive literature reviews on women’s sexuality and sexual fluidity, it has been concluded that sexual orientation identity status, as well as psychological, biological, and social factors, all play roles in the expression or degree of sexual fluidity experienced. This means that certain personal and environmental factors have the ability to both hinder and/or nurture fluidity in a woman’s sexual attractions, behaviors, and experiences. Accepting that women’s sexuality is fluid and teaching about the variability sometimes observed in women’s sexuality allows us to not only see that experiencing same-sex attractions, desires, or experiences is not necessarily abnormal, but also that it may be more common than originally assumed, which has the potential to reduce societal stigma associated with homosexuality.

Viscous state effect on the activity of Fe nanocatalysts.

Many applications of nanotubes and nanowires require controlled bottom-up engineering of these nanostructures. In catalytic chemical vapor deposition, the thermo-kinetic state of the nanocatalysts near the melting point is one of the factors ruling the morphology of the grown structures. We present theoretical and experimental evidence of a viscous state for nanoparticles near their melting point. The state exists over a temperature range scaling inversely with the catalyst size, resulting in enhanced self-diffusion and fluidity across the solid-liquid transformation. The overall effect of this phenomenon on the growth of nanotubes is that, for a given temperature, smaller nanoparticles have a larger reaction rate than larger catalysts.

Electronic Techtonics: Thinking at the Interface

This volume originated in HASTAC’s first international conference, “Electronic Techtonics: Thinking at the Interface,” held at Duke University during April 19-21, 2007. “Electronic Techtonics” was the site of truly unforgettable conversations and encounters that traversed domains, disciplines, and media – conversations that explored the fluidity of technology both as interface as well as at the interface. This hardcopy version of the conference proceedings is published in conjunction with its electronic counterpart (found at www.hastac.org). Both versions exist as records of the range and depth of conversations that took place at the conference. Some of the papers in this volume are almost exact records of talks given at the conference, while others are versions that were revised and reworked some time after the conference. These papers are drawn from a variety of fields and we have not made an effort to homogenize them in any way, but have instead retained the individual format and style of each author.