One of the great unanswered questions in physics is why the fundamental forces of nature have the particular strengths we observe. The Standard Model describes these forces with extraordinary accuracy, but their strengths are largely quantities we measure rather than derive from a deeper underlying principle. VERSF explores a different possibility: that these strengths ultimately emerge from the fundamental processes through which the universe creates change, establishes physical relationships and preserves facts about what has happened.
The new paper, Physical Matter–Higgs Record Weighting and the Gauge-Coupling Closure Gate in VERSF (SGW-2), takes another step towards that goal. Starting with the known particles and the Higgs field, it examines how the underlying VERSF rules might assign different physical responses to different kinds of matter. The mathematics reveals something important: although six distinct contributions are possible, only two independent combinations can change the relative strengths of the three underlying gauge interactions. Three combinations are completely invisible to this calculation, while another changes only their common scale. This dramatically narrows what VERSF must calculate to explain the relative strengths of the forces, without using their measured values to choose the answer.
The paper also develops an intriguing connection between physical forces and one of VERSF’s central ideas: that the universe continuously creates new facts, but those facts, once established, must remain part of reality. Preserving a fact does not mean everything must stop changing. Instead, it places restrictions on which changes remain possible. SGW-2 demonstrates mathematically that, under a specific protected-record assumption, preserving a previously established fact makes one particular kind of physical change more difficult. The resulting increase in resistance to change is calculated exactly in a model involving interacting links, currents and records. This is significant because it suggests a possible mechanism through which the universe’s accumulated history could influence its subsequent physical behaviour.
Importantly, the paper does not claim to have derived the actual strengths of the forces yet. The calculated record effect must still be connected to the full physical VERSF action and shown to influence the appropriate particle interactions. It is even possible that the effect, despite being mathematically real within the model, makes no difference to the relative force strengths. SGW-2 establishes a precise way to test that possibility rather than assuming the desired result.
The advance is that another part of the journey from VERSF’s fundamental principles to the Standard Model has become mathematically defined and testable. We now know exactly which aspects of the matter response could influence the relative gauge strengths, how preserving established facts can alter an underlying action in a controlled model, and what calculation must connect the two. The next challenge is to calculate that connection directly from VERSF’s fundamental rules and determine whether nature’s measured force strengths follow without introducing them as inputs.