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All you need is some mechanism to keep the light bouncing. I speculate that the mechanism is resonance and positive feedback. Positive feedback comes from bending the photon's path. Resonance comes when the bend is strong enough to complete a circle in one wavelength.
Vern, that you will need to explain further?Oh yes."The light becomes mass if you allow it to continue the bouncing pattern but without the box."And I who thought that it was only me being an mystic here:)
It seems interesting; can you make an example of how it could happen? However, if the space where the photon is confined would be little enough, maybe the gravitational field produced by it would be strong enough to bend it in a circle? (High speculations here!!)
Lightarrow.Why "A system of two photons not travelling in the same direction HAS mass:"And if they were traveling in the same direction then?Why should that 'matter'.Or not.-
That is if we want to treat mass as matter?And that do confuse me:)
Vern, I understand that according to your definitions matter is photons:)And if you want, you could argue that matter is energy in mainstream science too.Which when 'going down' to its ground state would be defined as photons?But to me photons, even though they may transform into particles under high energy, and 'matter' is very different 'states'.If I use Lightarrows example, I still wonder why a system with two photons not traveling in the same direction is seen to have mass, while the same system with photons traveling together would not?Would you have an explanation for that?
Lightarrow.Why "A system of two photons not travelling in the same direction HAS mass:"And if they were traveling in the same direction then?Why should that 'matter'.Or not.----The only reason I can see if mass was treated as a 'relation' between those two photons.And then it seems even less to have to do with what i call 'matter'?
If I use Lightarrows example, I still wonder why a system with two photons not traveling in the same direction is seen to have mass, while the same system with photons traveling together would not?Would you have an explanation for that?
Well energy makes mass and mass makes energy .....but there should be a condition for some density of energy to convert it's self to mass ... so, how a group of photons and make a milli gram of mass ( a small amount in a closed system ? think about the universe if it is closed system under a high compression of energy it might have created mass right ??
Lightarrow:)Vern:)As it's Saturday and as I have some friends (strangely but true:) with, ah, fluids?Dark brown with a taste of malt I might add.I just don't dare to write anything trying to making sense anymore, if I ever did:) But I just want to thank you , and all, for interesting thoughts.As you say Vern, Lightarrow makes sense, as do you, and Chem, and Lady, And (obviously) SC and LeeE and Karen and.... (I'll stop here, otherwise I will write 'this' to an all too early grave)But I just want to thank the founders of this site for a lovely forum.Filled with interesting people.
Any time you confine a photon of energy in a local area by whatever method, the photon becomes mass. This is true even if you confine it by bouncing it back and forth inside a mirrored box, or as lightarrow said by getting the photon absorbed by mass. The absorbed photon is bouncing around between atoms in the mass, and so is confined to a local area.I can add some speculation of my own to that and say an electron is a photon of a certain frequency confined in a local area. Its like a resonating standing wave.
Abstract: Important progress in understanding the behavior of hadronic matter at high density has been achieved recently, by adapting the techniques of condensed matter theory. At asymptotic densities, the combination of asymptotic freedom and BCS theory make a rigorous analysis possible. New phases of matter with remarkable properties are predicted. They provide a theoretical laboratory within which chiral symmetry breaking and confinement can be studied at weak coupling. They may also play a role in the description of neutron star interiors. We discuss the phase diagram of QCD as a function of temperature and density, and close with a look at possible astrophysical signatures.
It is proposed that the dense matter formed in the collapse of large stars goes strange while still in the nucleon-meson (broken chiral symmetry) phase through kaon condensation. The K--meson energy is lowered, with increasing density, by the attractive vector mean field originating from the dense nucleonic matter. Once the K- energy comes down to the electron chemical potential μe, which increases with increasing density, the elec- trons change into K--mesons through the reaction e- --> K- + v. This is estimated to occur at a density ϱc ~ 3ϱ0, where ϱ0 is nuclear matter density.