Understand Bubble Nucleation in Phase Transition - Analogy/Figuration

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SUMMARY

This discussion focuses on bubble nucleation in phase transitions, using boiling water as a clear analogy. Bubbles form at imperfections in the container, illustrating how a system transitions from liquid to gas. This process mirrors phase transitions in the early universe, where quantum tunneling initiates the transition to a lower-energy state, leading to rapid expansion. Understanding these concepts is crucial for grasping the dynamics of phase transitions in various scientific contexts.

PREREQUISITES
  • Basic understanding of phase transitions
  • Familiarity with quantum tunneling concepts
  • Knowledge of thermodynamic principles
  • Experience with analogical reasoning in scientific contexts
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  • Research the principles of quantum tunneling in phase transitions
  • Explore thermodynamic properties of boiling water and its implications
  • Study the dynamics of phase transitions in cosmology
  • Investigate the role of surface imperfections in nucleation processes
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This discussion is beneficial for physicists, materials scientists, and anyone interested in the mechanisms of phase transitions and their analogies in everyday phenomena.

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How can I understand the bubble nucleation in the process of phase transition? Are there any analogs or clear figuration?

Thanks!
 
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xiaomaclever said:
How can I understand the bubble nucleation in the process of phase transition? Are there any analogs or clear figuration?

Thanks!
Well, a really easy to see example is boiling water. If you've ever boiled water, you may have noticed that bubbles start to form at certain spots on the container (these are generally imperfections in the surface), and as the bubbles progress towards the surface, they grow.

With boiling water, what happens is that the system as a whole would rather be in a gaseous state. But in order to transition to a gas, that transition has to start somewhere. With boiling water, it tends to start at some imperfection in the glass. And once the transition starts, it grows rapidly.

It's the exact same basic idea with phase transitions in the early universe. A phase transition first starts in some location, typically thought to be due to a quantum tunneling event, and then if that event leads to a lower-energy state, then the new phase will rapidly spread.
 

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