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It was Prince Louis de Broglie who explained Bohr's theory in 1924 by describing the electron as a wave with wavelength λ=[[Planck's Constant|h]]/[[momentum|p]].  Therefore, it would be logical that it could only orbit in orbits whose circumference is equal to an integer number of wavelengths.  Thus, angular momentum is quantized as Bohr predicted, and atoms do not self-destruct.<ref name="VA" />

It was Prince Louis de Broglie who explained Bohr's theory in 1924 by describing the electron as a wave with wavelength λ=[[Planck's Constant|h]]/[[momentum|p]].  Therefore, it would be logical that it could only orbit in orbits whose circumference is equal to an integer number of wavelengths.  Thus, angular momentum is quantized as Bohr predicted, and atoms do not self-destruct.<ref name="VA" />

Eventually, the mathematical formalism that became known as quantum mechanics was developed in the 1920s and 1930s by [[John von Neumann]], [[Hermann Weyl]], and others, after [[Erwin Schrodinger]]'s discovery of wave mechanics and [[Werner Heisenberg]]'s discovery of matrix mechanics.

Eventually, the mathematical formalism that became known as quantum mechanics was developed in the 1920s and 1930s by [[John von Neumann]], Hermann Weyl, and others, after [[Erwin Schrodinger]]'s discovery of wave mechanics and [[Werner Heisenberg]]'s discovery of matrix mechanics.

The work of Tomonaga, Schwinger and Feynman in quantum electrodynamics led to the modern framework of quantum mechanics, currently applicable in quantum electrodynamics and quantum chromodynamics.

The work of Tomonaga, Schwinger and Feynman in quantum electrodynamics led to the modern framework of quantum mechanics, currently applicable in quantum electrodynamics and quantum chromodynamics.