This effect is used in laser physics to "split photons" in spontaneous parametric downconversion. That is, an intense laser changes the refractive index of a medium periodically. These oscillations generate a squeezed vacuum state.
In the actual summation, does the calculation of vacuum energy take into account a cross section of neutrinos and extended "particles". I've always found the concept of vacuum energy lacking in that most(even physicists) do not fundamentally conceptualize a permanent neutrino and elementary particle flux in all but the most astoundingly shielded vacuum.
If there is a medium in which to effect the refractive index, then isnt this an interaction of the molecular structures therein?
And what of a Particle-Wave-Fluid triality?
"""Explain how specific (for example Fedi and Turok's) theories of gravitons and superfluidity differ from General Relativity, the Standard Model, prevailing theories of Quantum Gravity and dark matter and/or dark energy non-uniform correction coefficients, classical fluid dynamics, and quantum chaos theory in regards to specific phenomena in the quantum foam.
Also, are is there one wave function or are there many; and are they related by operators expressible with qubit quantum computers or are qudits and qutrits necessary to sufficiently model this domain of n body gravity gravitons in a fluid field?
If graviton fields result in photons, what are the conservation symmetry relations in regards to the exchange of gravitons for photons?"""
And then (though apparently currently one must remove "must use `dask_ml.model_selection.GridSearchCV`" presumably due to current response length limits of Google Bard):
"""Design an experiment as a series of steps and Python code to test (1) whether Bernoulli's equations describe gravitons in a superfluidic field; and also (2) there is conservational symmetry in exchange of gravitons and photons. The Python code must use `dask_ml.model_selection.GridSearchCV`, must use SymPy, define constants in the `__dict__` attribute of a class, return experimental output as a `dict`, have pytest tests and Hypothesis `@given` decorator tests, and a `main(argv=sys.argv)` function with a pytest `test_main`, and use `asyncio`."""
FWIR there are Degrees of curl: convergence, divergence
But are paths of photon particles always non-intersecting?