In this article a new cosmological model is proposed for the dynamics of the Universe and the formation and evolution of galaxies. It is shown that the matter of the Universe contracts and expands in cycles, and that galaxies in a particular cycle may have imprints from the previous cycle. It is proposed that RHIC’s liquid gets trapped in the cores of galaxies in the beginning of each cycle and is liberated with time and is, thus, the power engine of AGNs. It is also shown that the large-scale structure is a permanent property of the Universe, and thus, it is not created. It is proposed that spiral galaxies and elliptical galaxies are formed by mergers of nucleons vortices (vorteons) at the time of the big squeeze and immediately afterwards and that the merging process, in general, lasts an extremely long time, of many billion years. The evaporation rate of RHIC’s liquid is calculated with Quasar PDS 456 data and the true nature of the concentrated mass at its center is revealed. It is not a Black Hole but the mass is of the same order of the supposed Black Hole. It is concluded that the Universe is eternal and that space should be infinite or almost. The paper has been published on March 15, 2007 by Frontiers in Science. Here is the link for accessing the paper.
The article Plot of the week – quark compositeness is nowhere near posted in Tommaso Dorigo’s blog is wrong. After reading this post, please take a look at the post BIASED NUCLEON STRUCTURE.
As I explain in the paper The Higgs Boson and Quark Compositeness (presented at Moriond 2014), and in its presentation, and in the paper Weak decays of hadrons reveal compositeness of quarks, what CMS and ATLAS have found is that prequarks are pointlike, actually, the three outermost prequarks (in the proton) as the three innermost prequarks form a small hard core. This hard core has been observed in many energy ranges and has recently been confirmed by TOTEM at 7 and 8 TeV. Please, see the important references on the subject in the presentation at Moriond 2014.
In order to see prequarks it is enough to take a look at the electric charge distributions in the nucleons (shown below) found by R. Hofstadter (Nobel Prize of 1961 together with R. L. Mössbauer) in the 1950s at SLAC (Rev. Modern Phys. Vol. 28, 214, 1956) and R. Wilson (then at Cornell University) in the early 1960s (Electric Structure of Nucleons) which cannot be produced by the three pointlike quarks uud and udd, according to QCD. A word of caution here: everybody knows that the quark model is very successful, but it cannot describe Hofstadter results in terms of pointlike quarks. We clearly see that both nucleons have a common core and that both of them have two layers of constituents. Therefore, the great physicists R. Hofstadter and R. Wilson found out prequarks before the discovery of quarks. In the paper The Higgs Boson and Quark Compositeness I show the reason of the success of the quark model: the hard core is small and around it there are 3 prequarks that are looser (we also see this in Hofstadter results because the outer layer varies from about 0.3 fm up to about 1.75 fm) than the innermost prequarks. These outer prequarks are confused with the so-called valence quarks which are almost massless. But in hadronization processes we just plug in the masses of constituent quarks which are, actually, the true quarks. And when we probe the proton with electrons through very deep inelastic scattering (that is, electrons with very small Compton wavelength) we see the three prequarks of the hard core and, again we confuse them with the so-called valence quarks. That is also the reason why it is very hard to pinpoint prequarks. Therefore, prequarks, constituent quarks and the so-called valence quarks are completely entangled. But the quantum numbers don’t lie and through them we clearly see the whole picture. For example, take a look at the post All Higgs decays linked to a new quantum number.
At Moriond 2014, on March 23, there was the presentation by Nicola De Filippis on behalf of ATLAS and CMS collaborations: Measurements of the Higgs properties at LHC. Part of the presentation was on the Higgs parity which had been determined to be even. At the end of his talk there was a hot discussion on the […]
The figure below is part of the paper presented at Moriond 2014. See the whole paper at the link. The transition from b to c is compatible with BaBar results as shown in BaBar’s paper. Abstract Considering that each quark is composed of two prequarks it is shown that the recently found Higgs boson belongs […]
Abstract The allowed and suppressed Higgs-like bosons couplings to quarks are identified. The relative ratios of strengths of allowed couplings are calculated. The latter is extremely important for experimentalists in the determination of the nature of the recently found Higgs boson and in the search for the charged Higgs-like bosons. Keywords Higgs Boson, Higgs-like Bosons, […]
The allowed and suppressed Higgs-like bosons couplings to quarks have been identified. The ratios of the strengths of allowed couplings are calculated. The latter is extremely important for experimentalists in the determination of the nature of the recently found Higgs boson and in the search for the charged Higgs-like bosons. To see the paper, please […]
There should be three Higgs-like bosons, a neutral boson H0 and two charged bosons, H+ and H–, arranged in a triplet and a quadruplet, respectively, as shown in the papers The Higgs-like Bosons and Quark Compositeness that clearly shows that the bosons have Spin 0 and are, thus, scalar bosons, and also that they carry new […]
As it is shown in the paper The Higgs-like bosons and quark compositeness preons (primons) have spin equal to ½, but the Z components of their spins should be equal to +1/4 or -1/4 and thus, since each pair of primons forming a particular quark have to have equal spin Z components, the interacting bosons […]
The SM Higgs boson does not exist simply because quarks are composite. Somebody may say now ‘come on, we haven’t seen it’, and the truth is that we have seen several indications of it. The first one was found in 1956 by Hofstadter when he determined the electric charge distributions in both nucleons. One can […]