Originally posted by buddhasystem
You realize, I hope, that most of the list can not be studied in a lab, as your statement seem to imply... but some can. Here's a recent study at
RHIC:
We report the observation of antihypertritons—comprised of an antiproton, antineutron, and antilambda hyperon—produced by colliding gold
nuclei at high energy. Our analysis yields 70 ± 17 antihypertritons (Formula) and 157 ± 30 hypertritons (Formula).
That's strange matter for you right there.
There is ample evidence for gravitational lensing etc. I totally understand that you never had a proper physics education and feel intimidated by the
subject (as many people are), and try to gain security by denouncing the whole field... Oh well, others spoke amply on that thread.
Based on a hypothetical model.
Again, anything can be proven when the models in question are not constrained by the known laws of physics.
Indeed, the research paper in question "proving" the existence of "strange matter" even acknowledges this to some degree by noting the several
hypothetical models that meet observations.
The 3H lifetime measurements to date (25–31) are not sufficiently accurate to distinguish between models, as depicted by Fig. 4B. The present
measurement is consistent with a calculation using a phenomenological 3H wave function (14), and is also consistent with a more recent three-body
calculation (15) using a more modern description of the baryon-baryon force. The present result is also comparable to the lifetime of free particles
within the uncertainties, and is statistically competitive with the earlier experimental measurements. Coalescence calculations: The coalescence model
makes specific predictions
Reading the paper, there are also lots of assumptions within the models they are comparing the results to.
They aren't producing anything useful. It is nothing more than slamming a 747 into the ground and then trying to deduce what makes it work by
looking at the pieces.
You can't tell anything useful about the 747 after its been blown up.
Also, the "strange matter" in question existed for all of a few nano-seconds.
Again, the island of stability has not been broken. When scientists can create "strange matter" and keep it around long enough to do something
useful with it, I'll change my tune.
In the paper they make the claim that in a neutron star, the strange matter would not instantly disappear because of local "energy constraints" -
again, a totally baseless assumption based on hypothetical theory that has no grounding in any laboratory proven physics.
[edit on 7-4-2010 by mnemeth1]