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A maximum mass for ideal white dwarfs is published

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Chandrasekhar's paper The Maximum Mass of Ideal White Dwarfs appeared in the Astrophysical Journal, showing that relativistic degeneracy sets an upper bound on the mass a cold star can support. The number in that paper, under its own assumptions, was about 0.91 solar masses; the familiar value near 1.4 came from the fuller treatment that followed. Arthur Eddington rejected the conclusion publicly and its acceptance was delayed for years, but it is now the boundary that separates the two families of stellar ending.

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Connections · 4
Assembled narrative · 1

Assembled from 32 blocks · 1 evidence · 19 related

  1. Story
  2. Chandrasekhar's paper The Maximum Mass of Ideal White Dwarfs appeared in the Astrophysical Journal, showing that relativistic degeneracy sets an upper bound on the mass a cold star can support. The number in that paper, under its own assumptions, was about 0.91 solar masses; the familiar value near 1.4 came from the fuller treatment that followed. Arthur Eddington rejected the conclusion publicly and its acceptance was delayed for years, but it is now the boundary that separates the two families of stellar ending.
  3. Knowledge
  4. Degeneracy pressure
  5. Chandrasekhar limit
  6. White dwarf
  7. Subrahmanyan Chandrasekhar
  8. A maximum mass for ideal white dwarfs is published
  9. Connections
  10. Chandrasekhar limit
  11. Subrahmanyan Chandrasekhar
  12. Degeneracy pressure
  13. White dwarf
  14. Subrahmanyan Chandrasekhar
  15. Degeneracy pressure
  16. White dwarf
  17. A maximum mass for ideal white dwarfs is published
  18. Chandrasekhar limit
  19. A maximum mass for ideal white dwarfs is published
  20. Chandrasekhar limit
  21. White dwarf
  22. Neutron star
  23. A maximum mass for ideal white dwarfs is published
  24. A radius is measured for the heaviest known neutron star
  25. Chandrasekhar limit
  26. Degeneracy pressure
  27. Red giant and asymptotic giant branch
  28. Sirius B
  29. Alvan Graham Clark sees Sirius B
  30. A maximum mass for ideal white dwarfs is published
  31. Evidence
  32. Derives an upper mass bound for a body supported by relativistic electron degeneracy. Journal, volume and pages come from an ADS scan listing seen via search; the paper was not fetched, and the statement that its own derived value was about 0.91 solar masses rests on a secondary summary.
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