The kinetic energy of a decayed α particle was calculated using the quasi-bound states, which has been found close to the experimental value.
📌 3 Key Takeaways
🎯
Objective & Hypothesis:The energy eigenvalues and the wave functions of an α particle in a Bohrium 270 nucleus have been calculated by solving Schrödinger equation for Generalized Symmetric Woods-Saxon potential.
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Key Findings & Data:Using the energy spectrum by excluding and including the quasi-bound eigenvalues, entropy, internal energy, Helmholtz energy, and specific heat, as functions of reduced temperature have been calculated.
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Conclusion & Impact:The kinetic energy of a decayed α particle was calculated using the quasi-bound states, which has been found close to the experimental value.
🔬Design:Research Article
📍Scope:Comprehensive Sample
⚙️Variables:Generalized symmetric Woods-Saxon potential · Tight bound states · Quasi bound states
Özet
The energy eigenvalues and the wave functions of an α particle in a Bohrium 270 nucleus have been calculated by solving Schrödinger equation for Generalized Symmetric Woods-Saxon potential. Using the energy spectrum by excluding and including the quasi-bound eigenvalues, entropy, internal energy, Helmholtz energy, and specific heat, as functions of reduced temperature have been calculated. Stability and emission characteristics have been interpreted in terms of the wave and thermodynamic functions. The kinetic energy of a decayed α particle was calculated using the quasi-bound states, which has been found close to the experimental value.
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