Speaker
            Dr
    Arbelaez Carolina
        
            (Postdoctoral researcher)
        
    Description
We propose an adjoint $SU(5)$ GUT model with a $T_{7}$ family symmetry and an extra $Z_{2}\otimes Z_{2}^{\prime }\otimes Z_{3}\otimes Z_{4}\otimes Z_{12}$ discrete group, that successfully describes the prevailing Standard Model (SM) fermion mass and mixing pattern. The observed hierarchy of the charged fermion masses and the quark mixing angles arises from the $Z_{3}\otimes Z_{4}\otimes Z_{12}$ symmetry breaking, which occurs near  to the GUT scale. The light active neutrino masses are generated by type I and type III seesaw mechanisms mediated by the fermionic  $SU(5)$ singlet and  the adjoint $\mathbf{24}$-plet. We construct several benchmark scenarios, which lead to $SU(5)$ gauge coupling unification and are compatible with the known phenomenological constraints originating from the lightness of neutrinos, proton decay, dark matter, etc. These scenarios contain  TEV scale colored fields, which could  give rise to a visible signal or be stringently constrained  at the LHC.
            Authors
        
            
                
                        Dr
                    
                
                    
                        Arbelaez Carolina
                    
                
                
                        (Postdoctoral researcher)
                    
            
        
            
                
                        Dr
                    
                
                    
                        Carcamo Antonio Enrique
                    
                
                
                        (Postdoctoral researcher)
                    
            
        
            
                
                        Prof.
                    
                
                    
                        Kovalenko Sergey
                    
                
                
                        (Associate Professor)
                    
            
        
            
                
                        Prof.
                    
                
                    
                        Schmidt Ivan
                    
                
                
                        (Associate Professor)
                    
            
        
    
        