Starting today August 7th, 2024, in order to post in the Married Couples, Courting Couples, or Singles forums, you will not be allowed to post if you have your Marital status designated as private. Announcements will be made in the respective forums as well but please note that if yours is currently listed as Private, you will need to submit a ticket in the Support Area to have yours changed.
Why have the other possible sources of matter/antimatter imbalance not been measured? Is it a problem of money/time or is the problem more fundamental?
I think it's that the instruments to make these measurements don't really exist. I'm not exactly sure if it's a matter of money or not having good technology for such detectors.
I seem to have subconciously picked the term that appeals mostly to me![]()
Where we are isn't exactly what I'd call "universe" but more like an inescapable prison.
I think it's that the instruments to make these measurements don't really exist. I'm not exactly sure if it's a matter of money or not having good technology for such detectors.
I must have done something incredible stupid to be here ...
I'm simply being poetic.
There's really nothing in matter or antimatter. They are made up entirely of empty space. They are nothing but forces and electrical energy and in turn, virtual particles where they can assemble into something a lot more complex like atoms, molecules, and people like us.
About the same thing happens in a computer program.Perhaps something like an AI might think they have "substance" but is made by nothing more than algorithms which in turn made by instructions and finally by binary numbers. But in "reality", they don't exist by any measure. They only exist as forms of energy.....just like us.
You might wonder about Big Bang, it simply may have never happened. It may be likelier we were simply "switched on" or we never had a "beginning" in the linear fashion of time.
This produces an imbalance of matter vs antimatter. Currently, the amount of CP violation that has been measured is too small to account for what we see
When I was six years old I spontanously and without any outside reference to build on developed thought experiments about time loops and implanted memories. I am always fascinated of how much people trust their experiences. As for me: I decided in that moment I can't.
That is highly unusual. I don't believe I have experienced it myself, but I've always thought of it possible through interaction with multiverses and could happen to other people.
:/
Ok, not so important. I fear to pose the next question because the answer might likely contain to much math: why was it suprising that the standard model created a matter antimatter inbalance? You can give me a link to an outside source if you don't want me to steal you to much time![]()
ETA: I thought I posted this, but apparently not. Maybe this answers your later question.
I'll avoid the math, if you allow me some loose analogies.
The first surprising discovery was that parity conservation was violated by the weak force. So this is P-violation.
Parity conservation is basically the idea that physics should look the same if you look into a mirror. Apart from words being reversed, you wouldn't notice anything unusual about watching a sporting event that was mirror reversed. The motion of balls flying through the air would look normal.
You might notice, in a mirrored baseball game, that they run around the bases the wrong way. But you'd realize that was an effect of the mirroring. What would be weird is if the letters on their jerseys were reversed, but they ran around the bases the 'right' way. That's sort of like the surprising thing that was discovered.
When it comes to the radioactive decay of certain nuclei, it does look different in a mirror. This was surprising enough to win a Nobel Prize.
Getting down to basics, if you have a matter particle, it decays into things that shoot off aligned with the particle's north pole. But if you have an antimatter particle, it decays into things that shoot off aligned with the particle's south pole.
Then someone figured, well maybe the 'switch' of a particle to its antiparticle and the switch of looking into the mirror or not will sort of cancel out. A proton is positively charged, while an anti-proton is negatively charged. So just as your left hand is a mirror image of your right hand (Parity symmetry), a proton is the mirror image of an antiproton (Charge symmetry).
The product of those two things is CP-symmetry, and it seemed like that was perfectly conserved. If you switch it from a particle to an antiparticle, but watch in a mirror, so that the North pole turns into a South pole, then physics looks the same again.
But when we looked for violations of that rule... we found them. This CP-violation was surprising enough to win another Nobel Prize.
You've got that completely backwards. Initial quantum fluctuations would lead to inhomogeneity without exponential inflation.The physics you proposed do not exactly make the physics of the universe less complex. It seems to me like the universe always need an additional rule to fix the problems of the last rule.
In the case of the inhomogenity shouldn't there be some kind of force that dispersed it ineuqitable?
It's not my argument, but that's the idea.As the universe looks to us very homogenous in the moment is your argument connected to the fact that we can not see every part of the universe?
You've got that completely backwards. Initial quantum fluctuations would lead to inhomogeneity without exponential inflation.
Usages change, neologisms are coined. The Milky Way used to be the universe until other galaxies were discovered, and then they were called 'island universes', but that changed.Linguistic, not scientific.
Look up "Universe" in any US dictionary of 1960s vintage.
This is not really the place for Cosmology 101. DYOR. Check out the Big Bang and Inflation.How does this relate to the idea that the universe looks prettty much the same from everywhere you look? Does this initial quantum fluctuation result in inhomogenity but that inhomogenity is limited in size so that matter dispersion looks homogenous at large scale?
You're too kind.