Second Take On $\beta^{-}$ Decays Again

The existence of electron inside the nucleus allows for an alternate view of $\beta^{-}$ decays.

(...$T^+$, [$p^{+}$, $e^{-}$],  $g^{+}$, $T^{+}$, $p^+$...)

where $p^{+}$ in the pair [$p^{+}$, $e^{-}$] holds the next particle, $g^{+}$.  And

(...$T^{+}$, $p^{+}$, $e^{-}$, $T^{+}$, $p^+$, $g^{+}$, $T^{+}$...)

where $e^{-}$ in orbit around the $p^{+}$ generates a weak $B$ field holds the next particle, $T^{+}$.

When $e^{-}$ is release from it orbit in the first sequence,

(...$T^+$, [$p^{+}$, $e^{-}$],  $g^{+}$, $T^{+}$, $p^+$...)$\rightarrow(...T^+, p^{+}, g^{+}, T^{+}, p^+...)+e^{-}$

the electron is emitted together with a packet of energy as the positive particles from higher orbits in the nucleus collapse inward.  [$p^{+}$, $e^{-}$] might be seem as a neutron that decayed into a proton and a $\beta^{-}$ particle with an release of energy.

When $e^{-}$ is release from it orbit in the second sequence,

(...$g^{+}$, $T^{+}$, $p^{+}$, $e^{-}$, $T^{+}$, $p^+$, $g^{+}$, $T^{+}$...)$\rightarrow(...T^+, 2p^{+}, g^{+}, T^{+}...)+e^{-}+T^{+}$

Energy is also released as positive particles from higher orbits in the nucleus collapse inward. Two particles, $e^{-}$ and, $T^{+}$ from the next higher layer is also released.  The resulting nucleus is unstable with a $2p^{+}$ particle,

(...$T^+$, $2p^{+}$, $g^{+}$, $T^{+}$...)

$2p^{+}$ may separate into two $p^{+}$ particles (posts "Two Quantum Wells, Quantum Tunneling, " dated 19 Jul 2015), one of which is ejected from the nucleus and so results in $\beta$-delayed proton emission decay.