Harry! By your shorthand given Neutron Star matter compaction Of 10^17, Are you approximating the given Neutron Star Density Range??): "Neutron stars have overall densities of 3.7×10e17 to 5.9×10e17 kg/m3"??Hello
Classical Motion
Condensates
In reference to compaction
normal matter 10^5
Neutron matter 10^17
Quark matter and its composites range from 10^18 to estimate 10^25
Partonic matter and its campsites rough estime10^26 to 10^30
Axion Gluon matter and its composites 10^31 to 10^35
They are Transients,
All have a property.
Dipolar Electromagnetic Vector fields that stop a singularity from forming.
Quark matter composites can form an Event Horizon and mimic the properties of a classical Black Hole.
Hey! it's OK to disagree.
Harry!! Quark permeable sacs cannot exist outside the proton permeable sac!! and Einsteins E=MC2 Is only a half-truth!! Because mass and energy are stored inside the neutron, the proton, the electron and the neutrino gaseous permeable indestructible minted sacs in the form of compressed GP1 Gaseous Aether Particles!!Hello
Adoni Yannop
Short hand hand or long Hand they are estimates.
And may even be composite density range.
It will take years from now to work out the rest.
Regardless they are quite dance.
The point is to understand the compaction from one transient to the other.
Neutron
Quark composite
Quark Keon matter
Quark
Partonic matter
Axion Matter
etc
The common property being,
Chiral Super-Symmetry Dipolar Electro-Magnetic Vector Fields.
How this property forms
Stars
Galaxies varies forms
Cyclic events
We describe multiquark clusters in quark matter within a Beth-Uhlenbeck approach in a background gluon field coupled to the underlying chiral quark dynamics using the Polyakov gauge which establishes the center symmetry of color SU(3) that suppresses colored states as an aspect of confinement. Quark confinement is modeled by a large quark mass in vacuum motivated by a confining density functional approach. A multiquark cluster containing n quarks and antiquarks is described as a binary composite of smaller subclusters n1 and n2 (n1+n2=n). It has a spectrum consisting of a bound state and a scattering state continuum. For the corresponding cluster-cluster phase shifts we discuss simple ansätze that capture the Mott dissociation of clusters as a function of temperature and chemical potential. We go beyond the simple "step-up-step-down" model that ignores continuum correlations and introduce an improved model that includes them in a generic form. In order to explain the model, we restrict ourselves here to the cases where the cluster size is 1≤n≤6. A striking result is the suppression of the abundance of colored multiquark clusters at low temperatures by the coupling to the Polyakov loop and their importance for a quantitative description of lattice QCD thermodynamics at non-vanishing baryochemical potentials. An important ingredient are Polyakov-loop generalized distribution functions of n-quark clusters which are derived here for the first time. Within our approach we calculate thermodynamic properties such as baryon density and entropy. We demonstrate that the limits of a hadron resonance gas at low temperatures and O(g2) perturbative QCD at high temperatures are correctly reproduced. A comparison with lattice calculations shows that our model is able to give a unified, systematic approach to describe properties of the quark-gluon-hadron system.
Harry, Thanks on agreeing on some of my points!! I appreciate!! But How can you stand "THIS DOUBLE TALK" that has absolutely nothing to do with reality!!Quark matter can only be confined by a Neutron envelope.
Neutron matter can be confined by compaction of normal matter 10^5l
[Submitted on 15 Aug 2023]
Thermodynamics of quark matter with multiquark clusters in an effective Beth-Uhlenbeck type approach
D. Blaschke, M. Cierniak, O. Ivanytskyi, G. Röpke
The axion-gluon coupling is the defining feature of the QCD axion. This feature induces additional and qualitatively different interactions of the axion with standard model particles -- quadratic couplings. Previously, hadronic quadratic couplings have been studied and experimental implications have been explored especially in the context of atomic spectroscopy and interferometry. We investigate additional quadratic couplings to the electromagnetic field and electron mass. These electromagnetic quadratic couplings are generated at the loop level from threshold corrections and are expected to be present in the absence of fine-tuning. While they are generally loop-suppressed compared to the hadronic ones, they open up new ways to search for the QCD axion, for instance via optical atomic clocks. Moreover, due to the velocity spread of the dark matter field, the quadratic nature of the coupling leads to low-frequency fluctuations in any detector setup. These distinctive low-frequency fluctuations offer a way to search for heavier axions. We provide an analytic expression for the power spectral density of this low-frequency background and briefly discuss experimental strategies for a low-frequency background search.
I find it Interesting that Modern Physicists postulate the miraculous ‘Big Bang Singularity Matter Creationist Story” versus a neutron indestructible permeable sac evolution story when most college educated people believe in Darwin Evolution for mankind over the Judeo-Christian God Creationism Of Man In His Image!!Trying to understand the dynamics of compact matter. This understanding may lead us, working the ways of the parts within the universe.
[Submitted on 27 Jul 2023]
Probing an ultralight QCD axion with electromagnetic quadratic interaction
Hyungjin Kim, Alessandro Lenoci, Gilad Perez, Wolfram Ratzinger
OK!! We agree to so much Harry!!):There was never a big bang.
And
Classical Black Hole with a singularity cannot form.
The age of the universe is infinite.
The parts within recycle, merge, compact, expel, expand.
But! you can have a condensate that mimics the properties of Black Holes.
Transient Condensates research to your hearts content.
When the inflaton is coupled to the gluon Chern-Simons term for successful reheating, mixing between the inflaton and the QCD axion is generally expected given the solution of the strong CP problem by the QCD axion. This is particularly natural if the inflaton is a different, heavier axion. We propose a scenario in which the QCD axion plays the role of the inflaton by mixing with heavy axions. In particular, if the energy scale of inflation is lower than the QCD scale, a hybrid inflation is realized where the QCD axion plays the role of the inflaton in early stages. We perform detailed numerical calculations to take account of the mixing effects. Interestingly, the initial misalignment angle of the QCD axion, which is usually a free parameter, is determined by the inflaton dynamics. It is found to be close to π in simple models. This is the realization of the pi-shift inflation proposed in previous literature, and it shows that QCD axion dark matter and inflation can be closely related. The heavy axion may be probed by future accelerator experiments.
It has been known for quite sometime that the Neutron Stars (NS) can play a role of the Dark Matter (DM) detectors due to many uniques features of NS. We apply these (previously developed) ideas to a specific form of the DM when it is represented by a composite object, rather than by a local fundamental field (such as WIMPs). To be more precise we consider the so-called axion quark nuggets (AQN) dark matter model, when the ``non-baryonic" dark matter in fact is made of quarks and gluons which are in dense quark phase (similar to the old idea of the Witten's strangelets). We argue that the interaction of the AQNs with NS material may lead to many profound observable effects, which dramatically different from conventional picture when DM particles are represented by weakly interacting WIMPs. In particular, we argue that the AQNs may serve as the triggers for the magnetic reconnection to heat the NS surface. This effect may strongly alleviate (or even completely remove) the observed inconsistencies between the predicted and observed surface temperatures for many old NS. This heating mechanism is always accompanied by the hard X ray emission, which may serve as an indicator of the proposed mechanism.
There was never a big bang.
And
Classical Black Hole with a singularity cannot form.
The age of the universe is infinite.
The parts within recycle, merge, compact, expel, expand.
But! you can have a condensate that mimics the properties of Black Holes.
Transient Condensates research to your hearts content.
Thank you Harry Costas for your comments. I am sorry to answer one question with another. Have you read my paper to which I had posted a link? Many of the questions you have asked are answered in that. In terms of Maxwell’s equation, chirality is everything, without it nothing would work. But what if Maxwell was wrong and Faraday, with his lines of force were correct? In such a scenario, there would be no difference between magnetic fields and electric fields. An electric field would be a polarised fields, a magnetic field would be that same field carrying energy. Would appreciate your feed back on my photon model and also on the possibility that Dark Matter is in fact Dark Light, made up of very low energy photons (electric dipoles) that as a result of their low energy have very low interaction with matter. In theory such a virtual photon field could pass through a lead sheet a light year across without undergoing any interaction. Yet, at the same time, this same Universe permeating virtual photon field will instantly align itself in the presence of a real photon, forming a line of aligned photons whose ends rest on the shoulders of infinity and the energy of the real photon travels along this line of linked virtual photons.Hello Jzz
Well written
Tell me more.
Do you understand?
Chiral Super-Symmetry Dipolar Electro-Magnetic Vector Fields.