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CERN bets the planet on the early Einstein having been wrong. Let me explain.

After having founded special relativity in mid-1905, the early Einstein held fast to the speed of light c being a global constant of nature for another 2 ½ years. Only in December of 1907 did Einstein switch to the view that c was only an everywhere locally, but not globally, valid constant of nature.

In 2008, results proving that the early Einstein of 1905 was right started to appear in the scientific literature. For example, quantum electrodynamics combined with the equivalence principle (Schwinger) shows this. Up until now, no counterproof is in the literature.

In light of this renaissance of the early Einstein, a previously noncontroversial policy of the famous CERN consortium turns out to be problematical: their refusal to update the outdated Safety Report of mid-2008. Demanding this update has become a priority issue for everyone who learns about its lack.

The return after a century to the global constancy of c of the early Einstein implies that man-made black holes – which CERN tries to produce in its soon to be re-started particle collider – are different: They are undetectable to CERN’s detectors. This fact renders the experiment strictly speaking unscientific. Most important, however: if but one specimen of the invisible hoped-for objects is slow enough not to fly away into outer space, it is going to grow exponentially inside earth to turn the planet into a 2-cm black hole after a silent period of a few years in accordance with the laws of exponential growth.

As long as CERN is unable to publicly contradict this scenario in an update of its famous 6 years old Safety Report, they cannot re-start the Large Hadron Collider on logical grounds.

It all boils down to the question: “Who of the two Einsteins – the early one or the 2 ½ years older one – was right?”

(For J.O.R.)

It is a nice game: Pretend that c, the speed of light in the vacuum, were a global constant of nature. Then the Einstein equation assumes a more compact form. And black holes acquire radically new properties. One should not try to produce them down on earth, for example.

Fortunately, this simple game is pure fiction. Presently, Stephen Hawking’s safety guarantee to the planet – the rapid “evaporation” he described – renders miniature black holes innocuous, his recent modifications notwithstanding.

There are some voices that c is indeed globally constant (http://eujournal.org/index.php/esj/article/view/2608/2469 ). Would this be a reason to look at the issue anew for Hawking and others?

To elder children and young adults, it is a bonanza since everything becomes transparent. The “ugly” dependency of the speed of light on the local pull of gravity – that it is slowed in the vicinity of the sun (Shapiro) and comes to a standstill at the horizon of a black hole (Oppenheiumer) – is gone since the distances travelled are proportionally enlarged. Simultaneously, the so far assumed to be added-on expansion speed of the universe ceases to be an option so that the “Big Bang” is no longer a physical reality. A new freedom – a vast new spatial reality to roam – opened itself up.

The same liberation has almost the opposite effect on slightly older young people – those who have to pass an exam or defend a thesis in a physical discipline. They are at a loss as to what still to believe and defend. Most textbooks have become obsolete. How discuss the new situation with Stephen Hawking, for example, or with CERN? Most importantly: How reconcile it with Einstein’s own work?

The latter job is a joy. A renaissance of the young Einstein – of the three years of his miraculous period ranging from 1905 until late 1907 – follows. These years were fueled by the universal constancy of the speed of light c in the vacuum as is well known.

What about the famous “Einstein equation” of late 1915, however: Has it become obsolete since its c is not a global but only a local constant? The equation only needs a re-scaling. The “too short” spatial distances for the elongated light travelling times just get proportionally stretched. The “Shapiro time delay” is now accompanied by a space dilation (“Shapiro-Cook space dilation”) and the infinite temporal distance to the horizon of a black hole is accompanied by an equally infinite spatial distance valid from outside.

The oldest and most important solution to the Einstein equation – the Schwarzschild metric – exists already in a correct stretched-out version. Only the full Einstein equation itself still waits to be written down explicitly in the correct form by a daring newcomer. Alternatively, Roy Kerr – author of the famous “Kerr metric” for a rotating black hole – may be willing to to accomplish the re-writing task for the Einstein equation which will then reveal a whole new physics.

Does the successful repair of a flaw that had gone undetected for a century (*) really need to be called a “catastrophe”? The opposite is the case. One sobering consequence also follows, however: When even the “hardest science” – physics – could go awry for a whole century, a new humility is called for in physics. The strongest young generation of history is now at the ready aided by the no longer distant young Einstein.

Acknowledgment: I thank the three Universities of the Normandy for the undeserved honor bestowed in Le Havre on my chaos work done in the footsteps of Jim Yorke who, together with Celso Grebogi and Ron Chen, was most deservedly honored there. For J.O.R.

(*) http://eujournal.org/index.php/esj/article/view/2608/2469

My repair of the global constancy of the speed of light c – the loss of which had stopped Einstein from publishing on gravitation for 4 years – has revived Einstein’s early greatest strength.

If c is globally constant, black holes are radically different – nonevaporating – in contradistinction to Hawking. And the by definition superluminal expansion speed of the “Big Bang” is likewise exploded.

Two canonized postulates gone: So it is no wonder that CERN refuses to defend its six years old safety report?

Suppose the young Einstein was indeed stronger: Would it not be worthy to check on this fact, especially so if it could save the planet from a catastrophe?

The world needs a voice capable of defending the older Einstein against the younger one. Anyone able to hit that goal?

Although I have already mentioned a recent technical note on the application of Astronomical Observation to LHC/Collider Safety in comments to other posts here and there, I have not posted specifically about it until now. So finally, a short mention:

The technical note follows on from a modest paper I wrote in 2012 (Discussions on the Hypothesis that Cosmic Ray Exposure on Sirius B Negates Terrestrial MBH Concerns from Colliders), which concerned micro-black hole (MBH) production and the white dwarf safety assurance. There I demonstrated that not only are most white dwarf stars not suitable as a safety assurance, but that those hand-picked for the 2008 safety report had magnetic field strength measured to just 99% confidence within the range for safety assurance. That is not to say that the LHC safety argument was only 99% reliable — just that one of the cornerstone assurances was. The affirmation of these measurements was needed for a safety assurance to LHC p-p collisions based on astronomical observations – as a safety assurance that is not based on Hawking Radiation theory — but based on verifiable measurement. The technical note captures the official LSAG (CERN) response on the matter after internal review at CERN in late 2012, which had remained archived from email discussions until recently, when those conclusions were formalised into this technical note:

Link to the technical note: http://environmental-safety.webs.com/TechnicalNote-EnvSA01.pdf

mostly harmless

That conclusion was fortunately, as expected, one of safety: significant progress had been made on the accuracy of B field measurement technology since the original 2008 safety report — and after a survey of latest literature, one finds that there are now extensive examples of WD with fields measured with uncertainty ranges within the 1–100 kG range required for assurance. However — despite an eventual conclusion of safety on this one matter (MBH concerns from p-p collisions) I would like to reiterate a point that I made back in 2008, that there is an obligation on industry to keep safety debate open and honest. We are not likely to see credible argument on any of the other concerns to LHC operations (strangelet production, magnetic monopoles, de sitter space transitions and vacuum bubbles, and so on), but these discussions do illustrate that re-visitations can be necessary.

Whilst onwards we strive to find new understandings to the universe, and to engineer new ways of being, we need to stand back and take a look at where we are, lest we get lost.

The May 2014 Scientific American article, “Super Symmetry, A Crisis in Physics”, got me thinking. If the proton mass is substantially greater that the sum of the masses of the quarks & gluons in the proton then there is an outrageous question regarding the Standard Model.

Before I attempt to answer that question we need to understand the concept of falsifiability.

The reason why I am qualified to ask this outrageous question is because I solved the physics of gravity modification, and falsifiability opens up more avenues for research, more questions and the finally the reasons for the outrageous question.

In April 2012 I met Lisa Randall while book signing at the National Space Symposium, held every April at the Broadmoor Hotel, Colorado Springs, Colorado. She is the Frank B. Baird, Jr., Professor of Science at Harvard University.

She autograph my copy of her book “Warped Passages” and I showed her the proof copy of my book “An Introduction to Gravity Modification, 2nd Edition” with the g=tau.c^2 massless formula for gravitational acceleration, solving the gravity modification physics.

More in the video …

— Gizmag

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The crisis in super symmetry physics is causing physicist to search for a new physics. Could this new physics be non-particle based? A physics closer to General Relativity than to either Quantum or String theories?

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This study has been published under the title “An Introduction to Gravity Modification, 2nd Edition”. It documents the new massless formula g=(tau)c^2, for gravitational, mechanical & electromagnetic accelerations; the discovery of Non Inertia (Ni) Fields and non-Gaussian photon probability, and the subsequent unification of photon shielding, transmission/cloaking, invisibility and resolution into a single phenomenon.