A previous ECSM paper identified a minimal electron-like response packet as a finite-radius, occupancy-locked, unit-negative localised configuration with branch counts (N_+, N₀, N_-) ≃ (0, 1, 3) and qₑff ≃ -1. That result established an electron-like stability candidate within a toy ECSM stability-functional model, but did not test whether the packet can support an internal spin-like orientation. This paper tests whether the previously identified electron-like packet can consistently host a two-state internal orientation p=+1 and p=-1, represented by a two-component spinor basis with Pauli closure, SU (2) norm preservation, and perturbative recovery. Using the V4b internal-orientation notebook, the V3b-like packet remains close to the electron-like occupancy scaffold, with N_+ = 9. 72e-4, N₀ = 1. 000146, N_- = 2. 998882, and qₑff = -0. 999304. The two internal orientation states relax to p_+ = +1 and p_- = -1, with near-degenerate energies and relative energy difference ≃ 1. 28e-16. The spinor basis states are orthogonal, have unit norm, and satisfy the Pauli algebra tests. SU (2) rotation preserves spinor norm to numerical precision, and perturbation recovery returns both p=+1 and p=-1 states to their original sectors. All fourteen final V4b verdict criteria pass. The result does not derive physical electron spin, the Dirac equation, magnetic moment, or QED. It establishes a narrower ECSM result: the previously identified electron-like response packet can consistently host a recovered two-state internal orientation satisfying orthogonality, Pauli closure, SU (2) norm preservation, and perturbative recovery.
Adam Sheldrick (Mon,) studied this question.