In the Charge-Entanglement Ontology, the standard periodic table elements are not the most stable possible configurations of matter. They are **nuclear fusion waste** — energetically economical structures formed in stellar cores through gentle stacking that preferentially incorporates abundant neutron-type dipole stacks. This paper demonstrates that replacing all neutron stacks with proton stacks — while keeping total **n** (photon dipole pairs) constant — produces significantly more stable versions of every known element. These pure proton strand configurations exhibit lower Greer Tax, tighter locking, higher critical locking efficiency, and dramatically enhanced physical properties, while preserving the same chemical identity. Neutron-type stacks are shown to function as essential **evolvability mechanisms**. Their inner opposite-spin pair creates a marginally unstable “decaying orbit” that enables quantum tunneling and gentle stacking at biologically relevant energies. Without them, pure proton strands would be too rigidly stable for abiogenesis and biological evolution to occur. The familiar elements therefore represent nature’s low-cost, evolvable compromise rather than its geometric optimum. The paper introduces the **Newton’s Cradle Helical Strand Model**, in which neutron-type stacks act as weak middle links that allow instability to propagate (decay), while pure proton strands form strong, uniform helices with no weak points. It also explains the remarkable consistency of radioactive decay rates: each neutron-type weak link has an identical geometric failure probability determined by the fixed eccentricity of the Alpha Void tear (e ≈ 0.962). This work lays essential groundwork for the study of super-elements and hyper-elements in subsequent papers, and points toward engineered near-eternal informational matter using multi-helix DNF architectures.
John Robert Lamarr Greer (Fri,) studied this question.