| Yep that's normal, that's why it's a trade-off. It smoothly deforms the distribution between classical and QM, and the results look less like theoretical QM, and more like a experimental QM (in practice it's hard to observe 2.0*sqrt(2.0) theoretical violation of BI). There is quite a lot of modelling freedom, to hide the distribution into the noise. The whole question is what's more likely between experimenters missing photon pairs to the noise due to a systemic misconception in a complex experimental setup, or have the universe be non-local. >The problem is not to find an alternative algorithm that predicts one of the results, the problem is finding one that predicts correctly all the results. A model which predict all the results (Hint : Fields), will be more complex and even less likely to convince anyone. Bell's theorem is a mathematical version of those onceyouseeit images ( https://twitter.com/TimKietzmann/status/1390405523430850562 ) where you realize that there is in fact nothing to see. |
It's not about what is more likely or which model I prefer. It's about which model gives accurate prediction that agree with the experimental results. (Or if you want to be more technical, which one has not been falsified.)