Could Dark Matter Influence Nucleus Decay Beyond Spontaneity?

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SUMMARY

The discussion centers on the hypothesis that dark matter may influence nuclear decay processes, challenging the notion of "spontaneous decay." Participants argue that if dark matter exists as undetected particles, interactions with protons or neutrons could lead to observable effects such as vibrations or fission, contradicting the idea of decay occurring without cause. The conversation highlights the need to reconsider the implications of dark matter on atomic behavior and its potential detectability through its effects on nuclear stability.

PREREQUISITES
  • Understanding of nuclear physics, specifically nuclear decay mechanisms.
  • Familiarity with dark matter theories and their implications in astrophysics.
  • Knowledge of particle interactions and their effects on atomic nuclei.
  • Basic grasp of statistical mechanics as it relates to atomic behavior.
NEXT STEPS
  • Research the role of dark matter in nuclear physics and its potential effects on decay rates.
  • Explore the concept of particle collision events and their implications for atomic stability.
  • Investigate current experimental methods for detecting dark matter and its indirect effects.
  • Study the statistical nature of nuclear decay and how it relates to observable phenomena.
USEFUL FOR

Physicists, astrophysicists, and researchers interested in the intersection of dark matter theories and nuclear decay processes.

Saul
Return of the Ether?

- There are reasons to believe that the universe contains much unseen dark matter. If it exists, it might be as undetected particles.
- The word "spontaneous" in "spontaneous decay" makes the phenomenon sound as though it were an effect without a cause. There is an accepted cause, of course, but it is of a statistical nature and does not tell us, for example, why one particular atom of Isotope X should have decayed while the immediately neighboring atom of the same Isotope X did not.

Let us assume that there is a sea of undetected dark-matter particles all about us. If a proton or neutron within a nucleus is hit by such a particle, whether directly or not, it should either vibrate or be knocked out of its host nucleus, or the entire nucleus might be caused to fission. There be nothing "spontaneous" about the occurrence. It would simply be a particle-collision event in which one participating particle was not detected.

Diverse details could be attributed to the hypothetical energy spectrum of dark matter.

If this scenario is nonsensical, I would like to know why.
 
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Let us assume that there is a sea of undetected dark-matter particles all about us. If a proton or neutron within a nucleus is hit by such a particle, whether directly or not, it should either vibrate or be knocked out of its host nucleus, or the entire nucleus might be caused to fission.

Isn't this self contradictory? If the "undetectable" matter caused vibration and perhaps even fusion of atomic nuclei, wouldn't we notice? Wouldn't that effect be delectable, therefore your dark matter would be detectable.
 
Yes we do detect, we do notice. But we attribute it to something else.
 

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