As always there is a nice AbstruseGoose comic to go with it:

Moderator: CharmQuark
oxodoes wrote:Not banning him is fine as we are part of a free-speech culture, but we don't have to talk to someone who is obviously just enjoying the attention he gets from beeing a crackpot.
March_Hare wrote:Bravo oxodoes, let's stop the trolling!
Bravo oxodoes, let's stop the trolling!
emmylou wrote:Sadly it will never stop
Do you want to die?Allan wrote:It may if he is banned.
As we can see they can do strangelet (uds) and antistrangelet (u~d~s~) but yet N=1.Stephen wrote:Speaking of which, what do you have to say about the fact that the RHIC has been running for 10 years now with no strangelets detected?
At LHC will be created two cold crystals from Dirac’s quark sea.Stephen wrote:You started talking about strangelets recently, ignoring the fact that strangelets are less likely to be created in the LHC than in the RHIC.
Read for exaple this pdf:Ivan, according to Orion you made a very big mistake in your theory. You say that the RHIC reached a magnetic field of 10^15, while the LHC will reach a value of 10^16. Do you have any evidence for saying that?
Proton, p = (uud).
Neutron, n = (udd).
Lambda, l = (uds).
Antiproton, p~ = (u~u~d~).
Antineutron, n~ = (u~d~d~).
Antilambda, l~ = (u~d~s~).
Hypertriton, T = (pnl).
Antihypertriton, T~ = (p~n~l~).
RHIC collides ions. That creates HOT quark gluon plasma.
Now LHC collides protons. In non-central inelastic collisions it can tear out of a Dirac sea a COLD crystals of strange matter and antimatter:
p + p = p + p + N(uds) + N(u~d~s~).
N is a number of lambda and antilambda in "strange nucleus or antinucleus".
The number of nucleons in usual matter is limited, because of electric repulsion between protons. The periodic system is limited by uranium.
The number of lambda (strange nucleons) in strange matter can be not limited and it is possible that neutron stars are in fact are big strange nuclei.
The strange matter can transform a usual matter into strange matter because under big N the binding energy per nucleon in strange nucleus is bigger than in usual matter under the same number of nucleons.
The binding energy can be find through the mass differences of nucleons in free state and inside the nucleus.
Usual matter:
Mass of a free proton is 938.272 MeV/c^2.
Mass of a proton in deuteron is several MeV/c^2 less.
Mass of a proton in He is several MeV/c^2 less.
Mass of a proton in C is several MeV/c^2 less.
Mass of a proton in Fe is several MeV/c^2 less, and minimal.
These mass differences say us about binding energy.
Strange droplet consisting of a several (uds) is unstable and decay.
The mass of free lambda is 1116 MeV/c^2 and is almost 200 MeV/c^2 bigger than the mass of free proton or free neutron.
This is the cause of lambda decay.
Some authors said that strange nucleus, consisting of 10 lambdas, can be stable.
The binding energy of one lambda in big strange nucleus can be, for example, of about 500 MeV/c^2.
That means that strange nucleus can grow transforming usual nuclei into strange ones.
The value 500 TeV, as a binding energy of (uds) in a strangelet N(uds), can easily be received from comparison with the rest energy of kaons K+ and K0, which are correspondingly 493 MeV and 497 MeV.
Kaons (K+=us~; K0=ds~) can be side products, occurring at the time of proton (p=uud) and neutron (n=udd) capture by strange matter N(uds):
N(uds) + p = (N+1)(uds) + K+ = (N+1)(uds) + e+ + 500 MeV.
(N+1)(uds) + n = (N+2)(uds) + K0 = (N+2)(uds) + 500 MeV.
...
...
...
Extremely powerful explosion.
This explosion has specific energy output, which is hundred times bigger than under the nuclear explosion.
By the way, at the time of November-December collisions there were more Kaons output that it was theoretically predicted. That means that we are very close to creation of this dead droplet, which can transform the whole Earth into 10-meterr lump of strange\dead matter.
Space observations says us that periods of pulsars are almost do not change. That means that strange matter is very stable.
Read about strange matter, strangelets, and strange stars in Wikipedia. I think that our civilization is crazy. From one hand, it already knows about a deadly dangerous strange matter; from the other hand, it tries to create that dead droplet at colliders. I do not understand you, people. I wish you to become mentally healthy and STOP all powerful colliders.
At LHC two COLD crystals can be created from Dirac’s quark sea. That is absolutely different state. That is not hot quark gluon plasma, but cold crystals, torn out of Dirac’s quark sea. Density of those crystals can be hundred times bigger than the density of nuclear matter and by hundred millions times more than the density of usual solid matter.
Strange crystal, which can be made tomorrow at LHC, can kill us all.
p + p + 2*3.5 TeV= p + p + 6000(usd) + 6000(u~s~d~)
Strange crystal 6000(usd) is extremely stable and deadly dangerous! This is a droplet of strange matter, embryo of a "neutron star". The whole Earth can be transformed into such strange matter in a 1000 of seconds or slightly more.
Excited vacuum region can be created between curved trajectories of protons in the place of nearest distance.1. Explain why an excited vacuum region will be created in a proton proton collision?
Because the equation pB=mc^2 will be achieved at TeV energy region. The formula pB=mc^2 is analogues to the formula of black hole GMm/r=mc^2/2. Proton has the mass m and magnetic moment p. If proton enters into such gravity field that GMm/r>mc^2/2, then it can not leave it. That means that proton is in a gravity black hole. If proton enters into such magnetic field B that pB>mc^2, then proton can not leave it. It means that proton is inside the magnetic black hole. There proton can be ruined, ejecting positron, and the number of constituent elements of magnetic hole will be more per one unit.2. Why do you believe strong magnetic fields to cause exited vacuum regions?
Because it can kill the Earth with very great probability.3. Why is an excited vacuum region dangerous?
Let’s see at 1 TeV per beam.4. The cosmic rays were covered by LSAG, and found to be a good comparison to the LHC collisions. Your claim that different velocities change the outcome of the collisions. This claim has been disproved.
Read attentively 4.5. Cosmic rays have been colliding right on the surface of the moon for 4 billion years. Why didn't we detect any strange matter on the moon when we visited it?
a/ The amount of created mesons is bigger than it was predicted by Standard Model.6. How do the results of the December collisions prove your theory?