This paper marks a new stage in the VERSF programme. Much of the work so far has asked whether structures already known from the Standard Model can emerge from the deeper geometry proposed by VERSF. Here the aim is different. A numerical result is being placed on record before experiment has settled the answer with decisive precision, so that future measurements can test it rather than the theory being adjusted afterwards.
The projected-source construction studied in the paper predicts a neutrino mass-squared spacing ratio of (R_\nu \approx 0.02822), together with mass ratios of approximately (1:1.0468:2.0967). The present experimental central value is about 5% higher, leaving the prediction roughly two local standard deviations low. That means the test is already live. If future measurements become more precise while remaining close to the present central value, this construction will be increasingly disfavoured and could ultimately be falsified. If the measured value moves downward toward the frozen prediction, the construction would gain experimental support.
No continuous coefficient was adjusted to make the neutrino result agree with experiment. The paper is also explicit, however, that the projected-source construction was adopted after an earlier single-orientation calculation had already failed. This is therefore a frozen prediction, not a blind one. That distinction matters. The value (0.02822) now stands as the prediction of this particular construction. If future work inside VERSF independently derives a different source normalisation, that should be published as a new prediction with its own derivation and provenance, rather than treated as an after-the-fact correction to this one.
There is also a second test already in play. Once the predicted mass pattern is calibrated using the atmospheric mass splitting, it implies a total neutrino mass of roughly (0.11) eV. Cosmological limits on that quantity depend strongly on the assumed cosmological model, so this comparison is less clean than the oscillation test, but it gives the same construction another route by which Nature can challenge it.
What is new here is therefore not simply that VERSF has produced another number. Earlier work has already produced numerical outputs that could be compared with known data. The important step is that this result is being placed on record before the relevant experimental precision is decisive. That creates a genuine forward test. Future measurements do not merely tell us whether the number is close. They can tell us whether this particular VERSF construction survives.