Henri Corniere
Henri Corniere | |
|---|---|
| Residence | Canada |
| Known for | Massive photon hypothesis; photon gas as the origin of the CMB radiation; variable "fundamental constants" |
| Scientific career | |
| Fields | Physics, Cosmology |
| Institutions | Independent researcher |
Henri Corniere (also written Henri Cornière) is an independent researcher based in Canada who works on the hypothesis that the photon is a ponderable particle with a real, non-zero rest mass. Working outside the academic mainstream, he argues that space is filled with a viscous gas of massive photons, and that this single assumption accounts for the cosmic microwave background radiation, the missing mass of galaxies, and the numerical values of constants such as c and h. He has presented this work in the online seminar series of the John Chappell Natural Philosophy Society.
Scientific contributions
The massive photon hypothesis
Corniere's central claim, set out in his 2023 paper Massive Photon Hypothesis Opens Doors to New Fields of Research, is that a mass can be calculated directly for the photon using the nineteenth-century kinetic theory of gases, without recourse to statistical mechanics or to modern field theory. He notes that conventional physics grants the photon both energy and momentum while denying it a real mass, despite Newton's second law in the form F = dp/dt, and observes that no experiment has ever ruled out a photon mass — published upper limits merely range over some eighteen orders of magnitude without settling anything.
Treating the photons pervading space as a genuine ideal gas in thermal equilibrium with a black body, and assigning the photon six degrees of freedom (three translational, plus spin and the two circular polarization helicities), the equipartition theorem gives 3kT = m0c02. With the measured CMB temperature T = 2.72548 K this yields a photon mass of
- m0 = 3kT/c02 = 1.25605 × 10−39 kg,
about 725 million times smaller than the mass of the electron. Corniere checks the six-degrees-of-freedom assumption by computing the pressure of the photon gas along two independent routes — the cavity/black-body result P = ⅓U with the Stefan–Boltzmann law, and the ideal gas law PV = NkT — and finds both give P = 1.39156 × 10−14 Pa. The same treatment yields about 370 photons per cubic centimetre and a "mass of space" of ρ = 4.645 × 10−31 kg·m−3. He also notes that the resulting relation c0 = (3P/ρ)1/2 is formally the Newton–Laplace equation for the speed of sound with an index γ of 3, so that light and sound waves obey the same equation despite their different propagation modes.
Origin of the CMB radiation
Applying the thermal de Broglie wavelength λ = h/m0c0 to this gas gives a mean wavelength of 1.76 mm, or a mean frequency of 170.37 GHz, which Corniere identifies with the cosmic microwave background. On this reading the CMB is not a "thermal relic" of an early hot phase of the universe but radiation continuously generated by the ubiquitous photon gas — which, he argues, explains its near-perfect isotropy and its persistence, since a relic would long since have disappeared. The observed spectral-radiance peak at 160.23 GHz is recovered from the mean frequency by the Planck-law factor 3/2.82144.
Non-universal constants
Because Eq. (1) makes c0 depend on the square root of the local gas temperature, Corniere concludes that the speed of light is not a universal constant but a local one, fixed by the photon gas in our own galactic neighbourhood. He points to the Boomerang Nebula at roughly 1 K, where the relation implies a light speed reduced by some 39%, and to Bose–Einstein condensate experiments in which light is slowed to a few metres per second as the temperature is driven to microkelvins. Reversing the derivation, he calculates Planck's constant and the speed of light from CMB temperature and frequency data alone, obtaining h = 6.62601 × 10−34 J·s and c0 = 2.99797 × 108 m/s, and argues that this answers the long-standing question of where these constants come from and why h is so small — a question Planck himself pursued without success. He further suggests that a greater light speed in deep space could account for the anomalous dimness of distant Type Ia supernovae, rendering cosmic acceleration and dark energy unnecessary.
Viscosity, photon drag and the ether-drift experiments
Combining the photon mass with the standard kinetic-theory expressions for mean free path and dynamic viscosity, and estimating a photon diameter of about 0.24 fm from a presumed high-frequency cutoff for gamma rays (following R. A. Ashworth's waveguide work on the helical travel of light), Corniere obtains a mean free path of order 1022 m — over a million light-years, which he offers as the reason distant galaxies are not blurred by photon–photon scattering — and a dynamic viscosity of about 0.44 Pa·s, thousands of times larger than that of ordinary gases and comparable to a heavy motor oil.
This extreme viscosity is the basis of his account of a family of experiments he regards as unresolved. A photon gas dragged along by the Earth explains, he argues, the null result of the 1887 Michelson–Morley experiment and the smaller but non-zero result reported by Dayton Miller at Mount Wilson, without invoking length contraction; it also accounts for Bradley's stellar aberration as a transition between two independently moving media. He gives particular weight to the one-way light-speed measurements using GPS clocks reported by Paul Marmet and by Stephen J. G. Gift, in which eastward and westward propagation differ by the rotation speed of the Earth's surface — evidence, on his reading, of an Earth-bound entrained medium and of light-speed anisotropy in contradiction with the postulate of light-speed invariance in special relativity.
Dark photons and the missing mass
Corniere distinguishes "active" photons, which carry a passing wave, from "dark" or cold photons, which merely fill space in incessant random motion — the analogue of air molecules not currently transmitting a sound. He proposes these dark photons, together with the aggregate mass of the electromagnetic waves crisscrossing space, as the constituents of the dark matter believed to be missing from galaxies. Radiation pressure from a galaxy's central bulge, he suggests, drives dark photons outward into a dense, viscous halo whose temperature and viscosity rise toward the rim, flattening the galactic rotation curve; on this picture galaxies resemble low-pressure systems in the surrounding space, much as hurricanes do in the atmosphere. He treats the photon gas as distinct from the classical static ether, which he allows might still exist at a smaller scale as the cause of gravity.
CNPS talks
He has presented in the CNPS online seminar series:
- "Mass Photon Theory with Mr. Henri Corniere" (19 March 2023)
- "Corniere's 'Massive Photon Hypothesis' and Jackson's 'Measurement Problem' Analysis" (4 February 2023)
Works
- Corniere, Henri (2023). "Massive Photon Hypothesis Opens Doors to New Fields of Research", International Journal of Recent advances in Physics (IJRAP), Vol. 12, No. 1/2, May 2023. DOI: 10.14810/ijrap.2023.12201