You pretty much avoided dealing with any of the points I raised. I get the impression you don't really understand the points made as you consistently avoid answering them and then quote articles which support my point and don't support yours. For example:The experiments the scientists did were based on our existing standard model of physics. That was the basis. They first calibrated things to reflect how the existing constant works. Then they made adjustments accordingly showing that even a slight variation led to no life giving stars hense no life. This is the same way experiments in the LHC can replicate the physics of the big bang. The experiments showed even a slight variation was enough. There was little room for any variation. For the constants they tested there is very little variation. I will have to go back and find the exact numbers but it was emphasized very slight variation was enough to lead to a breakdown. I will have to check that one. As far as I know each was done independently.
Ok fair enough I will have to check things out further. Besides I know that things are not 100% certain and that there needs to be further investigation and have said this all along. But that is what a hypothesis is about. We make certain assumptions and then try to test them out. All I am saying is that it is reasonable and fair to consider fine tuning as there are some things that are pointing that way. If tests show part of the way that some constants are finely tuned then surely this is a reasonable basis to make further inquiry rather than reject the hypothesis out of hand.
The results from the experiments are not a case of IF but as far as the experiments are concerned they are conclusive. You have to remember like a lot of theory and claims today no direct tests can be done so the only way we can verify things is through these sorts of experiments. If they use these methods to validate other ideas and theories then why not for these constants.
Why would the scientists and papers make these claims
A well understood and well-tested theory of fundamental physics (Quantum Field Theory — QFT) predicts contributions to the vacuum energy of the universe that are ,10120 times greater than the observed total value.The calculations are known to be correct in other contexts and so are taken very seriously.
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Today, our deepest understanding of the laws of nature is summarized in a set of equations. Using these equations, we can make very precise calculations of the most elementary physical phenomena, calculations that are confirmed by experimental evidence.
After extensive experiments under all manner of conditions, physicists have found that these numbers appear not to change in different times and places, so they are called the fundamental constants of nature.
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One can indeed perform physics tests of this rather abstract [AP] statement for specific processes like element generation. This can be done with the help of high performance computers that allow us to simulate worlds in which the fundamental parameters underlying nuclear physics take values different from the ones in Nature,"
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This "effective field theory" is formulated on a complex numerical lattice that allows the researchers to run simulations that show how particles interact.
Lee adds, "This work is valuable because it gives us a much better idea of the kind of 'fine-tuning' nature has to do in order to produce carbon in stars."
This can be done with the help of high performance computers that allow us to simulate worlds in which the fundamental parameters underlying nuclear physics take values different from the ones in Nature,
Notice the part in bold? They perform simulations, they do not change the values in our universe. Indeed, one of your other articles says the values do not change in our universe. I'm pretty sure you will miss the point being made again.
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