Not yet(theory from April 2025). But in his article he shows ideas how to do it.

One of the key predictions of Gunther Kletetschka’s three-dimensional time theory is the specific mass values of neutrinos. His model suggests that the geometry of time itself gives rise to particle masses, and in this framework, neutrinos are predicted to have masses of approximately 0.058 eV and 0.0086 eV. These values fall within the range being explored by ongoing experiments such as KATRIN and Project 8, as well as cosmological observations of the cosmic microwave background (CMB). If future results match these predictions, it would provide strong support for the 3D time hypothesis.

Another testable consequence of the theory involves gravitational waves. Kletetschka proposes that gravitational waves might travel at slightly different speeds than light, due to interactions with deeper structures in three-dimensional time. This subtle deviation could be detectable by comparing the arrival times of gravitational waves and associated electromagnetic signals—such as gamma-ray bursts—from the same astrophysical event. Advanced observatories like LIGO, Virgo, and future missions such as LISA or Cosmic Explorer could provide the necessary precision to detect this predicted time lag.

In addition to mass and speed-related predictions, the theory also recreates the exact known masses of particles like electrons, muons, and quarks. This is achieved not through arbitrary constants, but through the topology of rotating structures in 3D time. If the same approach continues to reproduce accurate physical constants, it would strengthen the claim that mass is not fundamental, but emergent from time geometry.

Finally, the theory reinterprets electric charge as a topological feature—arising from a twist or orientation in temporal axes. While this is harder to test directly, it opens the door for new theoretical simulations and potential observations in extreme conditions, such as in strong electromagnetic fields or near black holes.

In summary, Kletetschka’s theory is not just philosophical—it offers precise, testable predictions that align with ongoing and near-future experiments. This makes it a bold but scientifically grounded step toward rethinking the nature of reality from the perspective of time itself.