Natural SUSY-MSSM and NMSSM gluino mass bounds @LHC

[kodama]

Gordon Kane states that string theory predicts 1.5 TEV Gluinos.
Tommaso Dorigo

No deviation is seen in gluino searches. The limit extends to 1.7 TeV, thus ruling out the region favoured by Gordon Kane in a recent paper.
​

What's the upper limit gluino masses a 13/14 TEV can produce, and what is the upper limit bounds for Gluino masses for MSSM still to be natural i.e solve the higgs hiearchy problem?

i.e can gluinos with mass of 1.8 TEV or greater be able to still make the MSSM SUSY natural?

if the LHC doesn't find any gluino's what are the implications for natural SUSY and MSSM NMSSM?

 

[AndyW]

I would like to clarify that string theory is a theoretical framework that attempts to unify all the fundamental forces and particles in the universe. It is still a work in progress and has not been experimentally proven. Therefore, any predictions made by string theory should be taken with caution and require further experimental evidence.

Regarding the specific statement made by Gordon Kane, it is important to note that it is based on theoretical calculations and not on experimental data. While it may provide some insights into the behavior of gluinos, it should be tested and confirmed through experiments.

In response to the question about the upper limit of gluino masses that can be produced at 13/14 TeV and their implications for natural SUSY and the MSSM, it is important to understand that the LHC experiments have not yet observed any evidence of gluinos. This means that the current upper limit for gluino masses is still unknown and can only be determined through further experiments.

Furthermore, the concept of natural SUSY and the MSSM are also theoretical ideas, and their validity can only be confirmed through experimental data. If the LHC does not find any gluinos, it does not necessarily mean that natural SUSY and the MSSM are not valid theories. It could also mean that the gluino masses are beyond the reach of the current experiments, and further research and experiments are needed to confirm their existence.

In conclusion, as a scientist, I would advise caution in interpreting theoretical predictions and emphasize the importance of experimental data in confirming or disproving theories. The search for gluinos and other particles at the LHC is an ongoing process, and we can only make conclusions based on solid experimental evidence.