TENDL-2023 Nuclear data library

Gamma sub-library for Si (Z=14) and A=28: Tabulated production and total cross sections

Production and total cross sections
Reaction # Si(g,all) Si(g,x)a Si(g,x)d Si(g,x)g Si(g,x)he3 Si(g,non) Si(g,x)n Si(g,x)p Si(g,reac) Si(g,x)t
Reaction #
Partial cross sections
Reaction # Si(g,g) Si(g,a) Si(g,2a) Si(g,3a)
Reaction # Si(g,He3) Si(g,He3+a) Si(g,He3+2a) Si(g,t)
Reaction # Si(g,t+a) Si(g,t+2a) Si(g,t+He3) Si(g,t+He3+a)
Reaction # Si(g,d) Si(g,d+a) Si(g,d+2a) Si(g,d+He3)
Reaction # Si(g,d+He3+a) Si(g,d+t) Si(g,d+t+a) Si(g,d+t+2a)
Reaction # Si(g,d+t+He3) Si(g,2d) Si(g,2d+a) Si(g,2d+2a)
Reaction # Si(g,2d+He3) Si(g,2d+t) Si(g,p) Si(g,p+a)
Reaction # Si(g,p+2a) Si(g,p+He3) Si(g,p+He3+a) Si(g,p+t)
Reaction # Si(g,p+t+a) Si(g,p+t+2a) Si(g,p+t+He3) Si(g,p+t+He3+a)
Reaction # Si(g,p+d) Si(g,p+d+a) Si(g,p+d+2a) Si(g,p+d+He3)
Reaction # Si(g,p+d+He3+a) Si(g,p+d+t) Si(g,p+d+t+a) Si(g,p+2d)
Reaction # Si(g,p+2d+a) Si(g,p+2d+t) Si(g,2p) Si(g,2p+a)
Reaction # Si(g,2p+2a) Si(g,2p+He3) Si(g,2p+He3+a) Si(g,2p+t)
Reaction # Si(g,2p+t+a) Si(g,2p+d) Si(g,2p+d+a) Si(g,2p+d+He3)
Reaction # Si(g,2p+d+t) Si(g,2p+2d) Si(g,2p+2d+a) Si(g,3p)
Reaction # Si(g,3p+a) Si(g,3p+He3) Si(g,3p+t) Si(g,3p+t+a)
Reaction # Si(g,3p+d) Si(g,3p+d+a) Si(g,4p) Si(g,4p+a)
Reaction # Si(g,n) Si(g,n+a) Si(g,n+2a) Si(g,n+3a)
Reaction # Si(g,n+He3) Si(g,n+He3+a) Si(g,n+He3+2a) Si(g,n+t)
Reaction # Si(g,n+t+a) Si(g,n+t+2a) Si(g,n+t+He3) Si(g,n+t+He3+a)
Reaction # Si(g,n+d) Si(g,n+d+a) Si(g,n+d+2a) Si(g,n+d+He3)
Reaction # Si(g,n+d+He3+a) Si(g,n+d+t) Si(g,n+d+t+a) Si(g,n+2d)
Reaction # Si(g,n+2d+a) Si(g,n+2d+He3) Si(g,n+p) Si(g,n+p+a)
Reaction # Si(g,n+p+2a) Si(g,n+p+He3) Si(g,n+p+He3+a) Si(g,n+p+t)
Reaction # Si(g,n+p+t+a) Si(g,n+p+t+2a) Si(g,n+p+t+He3) Si(g,n+p+d)
Reaction # Si(g,n+p+d+a) Si(g,n+p+d+2a) Si(g,n+p+d+He3) Si(g,n+p+d+t)
Reaction # Si(g,n+p+2d) Si(g,n+2p) Si(g,n+2p+a) Si(g,n+2p+2a)
Reaction # Si(g,n+2p+He3) Si(g,n+2p+He3+a) Si(g,n+2p+t) Si(g,n+2p+t+a)
Reaction # Si(g,n+2p+d) Si(g,n+2p+d+a) Si(g,n+2p+d+t) Si(g,n+2p+2d)
Reaction # Si(g,n+3p) Si(g,n+3p+a) Si(g,n+3p+t) Si(g,n+3p+d)
Reaction # Si(g,n+4p) Si(g,2n) Si(g,2n+a) Si(g,2n+2a)
Reaction # Si(g,2n+3a) Si(g,2n+He3) Si(g,2n+He3+a) Si(g,2n+He3+2a)
Reaction # Si(g,2n+t) Si(g,2n+d) Si(g,2n+d+a) Si(g,2n+d+He3)
Reaction # Si(g,2n+2d) Si(g,2n+p) Si(g,2n+p+a) Si(g,2n+p+2a)
Reaction # Si(g,2n+p+He3) Si(g,2n+p+He3+a) Si(g,2n+p+t) Si(g,2n+p+d)
Reaction # Si(g,2n+p+d+a) Si(g,2n+p+d+He3) Si(g,2n+2p) Si(g,2n+2p+a)
Reaction # Si(g,2n+2p+2a) Si(g,2n+2p+He3) Si(g,2n+2p+t) Si(g,2n+2p+d)
Reaction # Si(g,2n+3p) Si(g,2n+3p+a) Si(g,2n+3p+d) Si(g,2n+4p)
Reaction # Si(g,3n) Si(g,3n+a) Si(g,3n+He3) Si(g,3n+d)
Reaction # Si(g,3n+p) Si(g,3n+p+a) Si(g,3n+p+He3) Si(g,3n+p+d)
Reaction # Si(g,3n+2p) Si(g,3n+2p+a) Si(g,3n+3p)