How Does Microgravity Affect Electrical Phenomena?

  • Thread starter Thread starter uiriamu
  • Start date Start date
  • Tags Tags
    Electricity
AI Thread Summary
Microgravity environments allow for the observation of electrical phenomena that are not easily accessible under 1 g conditions, primarily due to increased length and time scales. This includes enhanced visibility of capillary effects and the dynamics of larger particles in hard-sphere colloids. The interplay between electrical fields and hydrodynamics, as well as piezoelectric effects, becomes more pronounced in microgravity. Relevant dimensionless numbers, such as the Lundquist or Elsasser number, may provide insight into these phenomena. Overall, microgravity offers unique opportunities for experimental observation and manipulation of electrical effects.
uiriamu
Messages
1
Reaction score
0
Dear Experts,

Are there any effects that could be induced with electrity in a microgravity environment that can not be induced with 1 g such as superconductivity ?

uiru
 
Physics news on Phys.org
It's not that new effects can be induced; it's that the relevant length and time scales increase and become accessible to experimental observation/manipulation. For example, the capillary length increases, making the region 'near' a moving contact line become visible. In hard-sphere colloids, the settling times are longer so the particles are larger, the dynamics of individual particles can then be observed directly rather than using ensemble methods (light scattering, etc).

For electrical effects, I would think that you would be looking at how electrical fields are coupled to hydrodynamics or even piezo-electic effects; I don't know which specific number would be most relevant, but perhaps the Lundquist, Elsasser, or Magnetic Reynolds number. Or invent your own!
 
Back
Top