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by mattheww
3095 days ago
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>That number is calculated without including info about any theory/evidence regarding the Higg's [sic] boson. That's not true. You can see plots in the 2011 and 2012 papers that give these calculations as a function of mass. It's basically impossible to make a mass-independent calculation. (Not withstanding the fact that there's no Higgsless theory to do calculations for the background). >As an example, I'd imagine detecting the Higg's [sic] boson at 1 eV energy levels is theoretically predicted to be even less likely than billions/trillions to one odds, therefore detector noise would be a more likely explanation for such results, despite the low p-value. You're right, the p-value is much lower. Previous experiments have long since excluded such a low Higgs mass. Also, if the Higgs mass were so low, we probably wouldn't exist. |
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2) "That's not true. You can see plots in the 2011 and 2012 papers that give these calculations as a function of mass."
- Can you explain what you mean via figure 1 in this paper: https://arxiv.org/abs/1207.7235 ?
- I don't see the relevance of calculating p-values as a function of mass to my comment
3) "Not withstanding the fact that there's no Higgsless theory to do calculations for the background"
- Then what model did they use to calculate the p-values? (I do not know the details but am fairly certain it is one where there is no Higgs boson at any given mass)
4) "Also, if the Higgs mass were so low, we probably wouldn't exist."
- Ok, but I've also read headlines like "CERN proves the universe shouldn't exist", clearly this is just because their model of the universe is wrong. I'm sure in a pinch people could come up with some kind of balancing out of whatever problems would arise from such a small Higgs mass. The point was that assuming the current theory is correct, the Higgs would be a much worse explanation than detector noise.