How do the microscopic events proposed by VERSF produce the forces we measure? Completed Event Weighting and Force Response in VERSF advances this question by following how particle charges, currents and records contribute to the response of a field. It connects the theory’s underlying event descriptions to calculations at larger scales, where comparisons with the Standard Model become possible.
One central result is that grouping smaller steps into a completed event preserves their combined response, provided the elapsed time and relevant information are retained. Simply counting the same history differently cannot make a force stronger. The paper also distinguishes recording information from physically changing what happens next: a record can contain information about a field without altering its force response. To change that response, the record must affect the subsequent dynamics. This makes the role of completed events and permanent records much more precise.
The paper then tests a simplified model against measured force strengths. Using the strong and electromagnetic strengths as inputs, it predicts the weak-mixing value, which describes the relationship between the electromagnetic and weak interactions, about 1.7 per cent below the benchmark. This preserves the approximate relationship found in earlier VERSF work through a more explicit calculation. However, the model’s own starting normalisation makes electromagnetism roughly half as strong as measured, and simply doubling the strengths does not reproduce all the measurements together.
A further test connects this remaining mismatch to VERSF’s earlier calculation of how different charged components participate in events. Under the stated assumptions, that correction moves the weak-mixing result in the required direction and is large enough to pass the measured value. Matching it would require about 58 per cent of the full-history correction. That is a target for a physical derivation, rather than a new prediction obtained independently of measurement. The advance is therefore concrete: the paper identifies which effects preserve the force relationship, which can change it, and the size of the correction that the next calculation must explain, alongside the unresolved overall strength.