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Various properties of a material (viscosity, refractive index, etc.) can dramatically change after a phase transition. Investigating exactly when and how this change occurs potentially elucidates the dominant molecular forces working within the material, thus fueling significant scientific interest. Similarly, the analysis of idealized molecular models provides a framework for predicting the behavior of real, and often more complicated, materials. Understanding phase behavior is not just limited to fundamental research, as the ability to switch on or off various desirable properties with a simple “turn of the knob” can lead to interesting technological applications. Traditionally, intrinsic thermodynamic variables, such as temperature or pressure, act as the “knobs” that control phases. However, the application of external fields such as gravitational, magnetic, and electric fields, can play an equally vital roll since

Dynamic Electric Response of Charged Fibrous Virus (fd) Suspensions: Interactions of Charged Colloidal Rods in AC