I’ve always been interested in math and physics but, unfortunately, few of us have the privilege of being able to study it on a full-time basis. About 15 years ago, I went into a bookshop in Old Delhi, and started selecting some text books. The owner of the bookshop asked me what I was looking for. I said: an introductory but very comprehensive textbook on physics, including all of the new stuff like quantum math and what have you. He gave me an original print edition of Feynman’s legendary Lectures on Physics and told me that’s all I would ever need. I started working on it but… Well… It’s kinda tough to grind through when you’ve got a day job. 🙂 So… Well… Nothing much happened then.
However, the experimental verification of the existence of the Higgs field in CERN’s LHC accelerator three years ago (July 2012), and the award of the Nobel prize to the scientists who had predicted its existence (including Peter Higgs and François Englert), led me to buy Roger Penrose’s Road to Reality, A Complete Guide to the Laws of the Universe. So I started to try to read and understand it, and I also started writing this blog to externalize my frustration as I tried to cope with the difficulties involved. But now this site is getting quite a few hits and, hence, I’ll just continue it and see where it goes.
I consider myself to be of average intelligence only. However, I also consider myself to be a ‘citizen of the world’ and, hence, I think this is something we all should understand somehow. I don’t shy away from the math, however. So this is not a Guide to the Universe for Dummies. However, I hope it may help to guide some Not-So-Dummies. 🙂
Oh… And as for Penrose’s book, I put it aside and start re-reading Feynman’s Lectures again, which is why I’ve got two site addresses for this blog: Reading Penrose and Reading Feynman. I have to admit it’s basically about reading Feynman nowadays. He’s the real deal. 🙂 Maybe I’ll start reading Penrose again in some distant future, but… Well… Probably not: Penrose writes more about the math than about the physics, and I am more interested in the latter.
At this point, I should also acknowledge the incredible effort of two extraordinary people: Michael Gottlieb and Rudolf Pfeiffer, who have worked for decades to get those Lectures online. They also created a website for it which offers many more resources. That makes it accessible to all and everyone. However, there is no substitute for buying the Lectures yourself, and grinding through it yourself. Hence, I’d actually recommend you do not read this blog: just buy the Lectures yourself or – if you can’t afford them – visit the mentioned site of Gottlieb and Pfeiffer.
3 March 2016
I started this blog almost two and a half years ago. I am not where I had hoped to be. Not yet. But I do feel like I have a good grasp of quantum electrodynamics now. It feels good—like climbing Mont Blanc and seeing the summit ahead. 🙂 There is a lot more to learn before I’ll really get what it’s all about but—Hey! Feynman once wrote the following: “I think I can safely say that nobody understands quantum mechanics.” Well… I am not sure I fully understand it either—but I proved that the underlying math is structurally the same as that used in classical electrodynamical theory. So… Well… Perhaps we don’t ‘understand’ classical electrodynamics either.
19 March 2016
You probably heard about the discovery of gravitational waves by Caltech’s LIGO Lab. This makes our picture of the Universe pretty complete. As far as I am concerned, it confirms the wavefunction is, effectively, a propagation mechanism that is common to all forces. The fundamental question remains: what is the wavefunction? What are those real and imaginary parts of that ubiquitous complex-valued wavefunction?
I think I have an answer to that question now: the wavefunction does not only describe some oscillation in spacetime; it actually is an oscillation of spacetime.
Maxwell, after jotting down his equations for the electromagnetic wavefunction, wrote the following back in 1862: “The velocity of transverse undulations in our hypothetical medium, calculated from the electromagnetic experiments of MM. Kohlrausch and Weber, agrees so exactly with the velocity of light calculated from the optical experiments of M. Fizeau, that we can scarcely avoid the conclusion that light consists in the transverse undulations of the same medium which is the cause of electric and magnetic phenomena.”
We now know there is no medium – no aether (we do have the Higgs field, however!) – but we still haven’t answered the most fundamental question: what is it that is oscillating? We haven’t gone beyond the abstract math. I dare to say now that it must be spacetime itself. I guess that, in order to prove this, I’ll have to study Einstein’s general theory of relativity.
PS: Feynman’s developed his series of famous Lectures at Caltech. For some reason I don’t quite understand, it gives me immense satisfaction that the LIGO Lab is a Caltech initiative… Or… Well… I should add that Caltech arch-rival (MIT) is also involved. While it’s one of these things the scientific community had to find, I am so happy they did! 🙂 We live in exciting times!
6 June 2016
About three weeks ago, I brought my most substantial posts together in one document: it’s the Deep Blue page of this site. For those who’d like to read it in an e-book format, I also published it on Amazon/Kindle. This crowns many years of self-study, and many nights of short and bad sleep – as I was mulling over yet another paradox haunting me in my dreams. It’s been an extraordinary climb but, frankly, the view from the top is magnificent.
What a journey ! But I think I am slowly starting to find those words – the words that the Buddhist psychoanalyst, Robert Langan, refers to:
“We are in the words, and at the same time, apart from them. The words spin out, spin us out, over a void. There, somewhere between us, some words form some answer for some time, allowing us to live more fully in the forgetting face of nonexistence, in the dissolving away of each other.” (Robert Langan, in Jeremy Safran (2003), Psychoanalysis and Buddhism: an Unfolding Dialogue)
As all of physics is expressed in the language of math, I should substitute the “words” in that quote for “the math”: it’s the math that spins me out now, not the words—over some void. And the math forms some answer, for some time at least. 🙂 I also do think it allows me to live more fully – in the face of existence, or nonexistence. I am not sure which, but then existence and nonexistence are just dual mathematical spaces, so they must describe the same reality. 🙂
3 October 2017
As expected, the LIGO team got the Nobel Prize for Physics this year. It happened just now! They should have gotten it last year but… Then… Well… I guess the professors on the Committee needed more time to understand what it’s all about. 🙂
I wrote them a congratulatory message, and sent them my paper. I can’t believe I actually did that, but I did. In the best case, I just made a fool of myself. In the worst case… Well… I just made a fool of myself.
This might be the end of my journey. I’ve reached the summit. I’ve got the answers I was looking for. This is the e-mail I sent:
Subject: Congrats from Einstein 🙂
Dear Professors – Congratulations with the well-deserved Nobel Prize.
I am sure Einstein is very pleased. So… Well… Perhaps it is time to look at Einstein’s ideas about the quantum-mechanical wavefunction again – so as to try to connect the cosmos with the nano-world again.
If we look at Planck’s constant as a scaling constant only, then the argument of the wavefunction re-acquires a physical dimension (action) and, therefore, we then just need to find a suitable physical dimension for its components. As electromagnetic fields are associated with the N/C dimension (force per unit charge), it is quite natural to associate the N/kg = m/s2 dimension (force per unit mass) with the components of the matter-wave (i.e. the real and imaginary part). To make a long story short, the wavefunction can be interpreted as a tiny traveling gravitational wave itself. The results can be derived easily, and are elegant and intuitive:
- Probabilities are proportional to energy densities (and, of course, we get a physical normalization condition, complementing the mathematical normalization condition);
- Schrodinger’s equation becomes a diffusion equation for energy (interpreted as a two-dimensional oscillation of mass);
- The boson-fermion dichotomy is explained intuitively (the physical dimension of the components of the electromagnetic wave are expressed in force per unit charge (N/C), while we use the mentioned N/kg unit for matter-particles).
- Spin angular momentum is explained by the left- or right-handedness of the matter-wave and – as an added bonus – we get the electron radius (scattering radius) from a geometric argument.
- Also, the interpretation of amplitudes as traveling fields should also make it possible to derive the rotation matrices for amplitudes in an equally intuitive way.
I pre-published the key ideas on viXra.org (http://vixra.org/abs/1709.0390) – and also enclose them here. If not serious, then at least it’s fun as a didactic approach. I’ll probably try to publish this – in due time – in one of the more philosophical (read: less serious) journals. 🙂
Kind regards and congratulations once again.
Jean Louis Van Belle, Drs, MAEc, BAEc, BPhil
9 December 2017
I just published my second paper on the electronic e-print archive of the Los Alamos National Laboratories site (viXra.org). The article itself is pretty dense, but readable, and one of the reviewers e-mailed me personally—saying he loved my writing style (“very clear and readable”). He also gave me some references to recent literature on “four-cylinder” metaphors for the wavefunction.
That’s nice because… Well… He’s an eminent physicist who does not look down upon me. It was quite a struggle. The few who initially bothered to react to my attempts to make sense of Einstein’s basic intuition in regard to the nature of the wavefunction all said pretty much the same thing: “Whatever your geometric (or physical) interpretation of the wavefunction might be, it won’t be compatible with the isotropy of space. You cannot imagine an object with a 720° symmetry. That’s geometrically impossible.”
Well… Almost three years ago, I wrote the following on this blog: As strange as it sounds, a spin-1/2 particle needs two full rotations (2×360°=720°) until it is again in the same state. Now, in regard to that particularity, you’ll often read something like: “There is nothing in our macroscopic world which has a symmetry like that.” Or, worse, “Common sense tells us that something like that cannot exist, that it simply is impossible.” [I won’t quote the site from which I took this quotes, because it is, in fact, the site of a very respectable research center!] Bollocks! The Wikipedia article on spin has this wonderful animation: look at how the spirals flip between clockwise and counterclockwise orientations, and note that it’s only after spinning a full 720 degrees that this ‘point’ returns to its original configuration after spinning a full 720 degrees.
So… Well… I am still pursuing my original dream which is… Well… Let me re-phrase what I wrote back in January 2015: Yes, we can actually imagine spin-1/2 particles, and we actually do not need all that much imagination!
In fact, I am tempted to think that I’ve found a pretty good representation or… Well… A pretty good image, I should say, because… Well… Read my latest post. 🙂
23 December 2018
My explorations have resulted in a coherent set of papers on the viXra.org site and, hence, I would strongly suggest interested readers go there and check it all out. Frankly, I have come to the conclusion that a lot of so-called quantum-mechanical models can be explained in terms of classical physics. I therefore launched a sort of call to arms: the (quantum-mechanical) Emperor may not have any clothes. This is what I posted a few days ago.
Sent: Thursday, December 20, 2018 12:59 PM
To: All Rebels
Subject: A Manifesto for the Revolution?
Dear All – Thanks for the bilateral exchanges. Perhaps it is time to bring all spacetime rebels together here. 😊
I think we are all agreed on the fact that the Big Ship is not moving anymore. It feels like there has been a sort of academic brain freeze ever since Heisenberg imposed his Diktatur on how we should think about quantum mechanics. Orthodox quantum mechanics is broken beyond repair. Hence, we need to build our own spaceship to venture out to the New Universe. It should be small and nimble. The Seeds of the Revolution are the following:
1. The + or – sign in front of the argument of the wavefunction has a meaning. It’s a degree of freedom in the mathematical description that has not been exploited by physicists. If we want to give it a meaning, then it’s probably the spin direction. It is plain weird that we need the concept of spin in all of our discussions and models on quantum physics but that the Founding Fathers of QM chose to limit the power of Euler’s function to describe a spin-zero particle only.
Once we acknowledge that, all these weird symmetries (720-degree symmetry for spin-1/2) disappear, so there is no ‘excuse’ anymore to not think about a geometric/physical interpretation of the wavefunction. That should trigger a new burst of creative thinking. For starters, we’ll have a different interpretation of Schrödinger’s wave equation. In fact, I would dare to say that, for the first time, we will actually have a (geometric) interpretation of Schrödinger’s wave equation (and its solutions – the orbitals – of course).
2. The difference between the g-factor for spin versus orbital momentum (2 versus 1) can easily be explained by a form factor. If we think of the (free) electron as some disk-like structure (a two-dimensional oscillation, that is), then we’ll have a ½ factor in the formula for its angular momentum and the ‘mystery’ is solved. The anomalous magnetic moment is then not anomalous anymore: it’s just a coupling between the spin and orbital angular momentum that occurs because of the Larmor precession.
Schwinger’s α/2π factor says it all here: if the fine-structure constant is just a dimensional scaling factor explaining the disk-like shape of the (free) electron, then we would expect to see it pop up in some form in the final equations for the motion of real-life electron, which combines orbital motion, Larmor precession (just the effect of magnetism) and spin. I’ve re-written my paper on the anomalous magnetic moment in this sense (it’s on the Los Alamos site for rebels – yes, sorry, I don’t bother to even try to get stuff published in a proper journal) – but I need to do so more work on it. These motions are complicated and to get the coupling factor, we can – unfortunately – not just superpose motions: there is only one value for the magnetic field vector, and the magnetic moment/angular momentum of the whole thing (i.e. the real-life (disk-like) electron moving in this complicated orbital).
3. Interference and diffraction – stuff like the Mach-Zehner experiment – should be explained the way one would usually explain diffraction and interference: if we are going to force a wave through a slit or an aperture, the wave shape is going to change. We need to distinguish between linear and circular polarization ‘states’ – which become real states here! And we should think about how plane waves become spherical waves when they go through an aperture. I think a photon is a circularly polarized wave, but when it goes through the beam splitter, it might be broken up in two linearly polarized waves – each going in a different direction (to the top or, alternatively, to the bottom mirror). If one of them finds its way blocked, it will – somehow – rejoin the other direction (it might just bounce back, right?). Weak measurement shows there is something there. Weak measurement shows the idea of an amplitude is real. It’s not just a mathematical thing. We just need to do some hard thinking on wave shapes and form factors.
We’re not challenging any basic results of quantum mechanics here. We’re just challenging the standard Copenhagen interpretation, which is – basically – that we should not even try to understand what’s going on.
So… Well… On-on ! Check my papers and then think for yourself now. Let’s honor the Spirit of Ludwig Boltzmann: “Bring forth what is true. Write it so it’s clear. Defend it to your last breath.”
I would add: Please enjoy while doing so! 😊
PS: Comments on the site or on individual posts are to be posted publicly as comments, using the web form. Please don’t email me. 🙂 You can, of course, but you will have more of a chance of a decent reply when submitting a formal comment. 🙂
24 May 2019
Weird. I had a contract with the Institute of Physics, and an endorsement by the owner of World Science Publishing, to get a proper book published. It is all ready. It’s here – on Phil Gibbs’ site. But some jealous reviewers – followers of Hestenes, or Hestenes himself – blocked the publication. They think it isn’t ‘scientific enough’. In other words: I didn’t echo what they were writing and I didn’t cite their work enough. So I am back on my day job – which is working on development projects in weird places. I’ll find time to work on this stuff again. And then I’ll just self-publish it. One shouldn’t waste time with academics.
13 June 2019
I am where I wanted to be: I think I have a comprehensive common-sense explanation for the so-called mysteries in quantum mechanics. In the QED sector, at least. I write about that in my last post—last post on this blog, that is. Now I want to move on and try to understand what goes on inside of the nucleus of an atom. So that’s QCD. Non-linear stuff. I’ve started not one but two new blogs on that: readingeinstein.blog and ideez.org. The latter is the more revolutionary one. Go see if you like it. 🙂
This has been a long journey. Almost five years. It’s been a nice experience. This blog did not bomb the Internet but I was quite happy with the traffic and the encouragements. I got 150,000+ visitors over the years – and some of you left encouraging questions and comments. So it’s been a gentle and understanding community.
Thanks for that ! On-on ! 🙂
Jean Louis Van Belle