TENDL-2015 Nuclear data library

Neutron sub-library for Cu (Z=29) and A=76m: Tabular production and total cross sections

Production and total cross sections

Reaction #	^76mCu(n,x)a	^76mCu(n,x)d	^76mCu(n,el)	^76mCu(n,x)g	^76mCu(n,x)he3	^76mCu(n,non)	^76mCu(n,x)n	^76mCu(n,x)p	^76mCu(other)

Reaction #	^76mCu(n,tot)

Partial cross sections

Reaction #	^76mCu(n,g)	^76mCu(n,g)	^76mCu(n,a)

Reaction #	^76mCu(n,a)	^76mCu(n,2a)	^76mCu(n,3a)	^76mCu(n,He3)

Reaction #	^76mCu(n,He3)	^76mCu(n,He3+a)	^76mCu(n,He3+a)	^76mCu(n,t)

Reaction #	^76mCu(n,t)	^76mCu(n,t+a)	^76mCu(n,t+a)	^76mCu(n,t+2a)

Reaction #	^76mCu(n,t+He3)	^76mCu(n,d)	^76mCu(n,d)	^76mCu(n,d+a)

Reaction #	^76mCu(n,d+a)	^76mCu(n,d+2a)	^76mCu(n,d+He3)	^76mCu(n,d+He3)

Reaction #	^76mCu(n,d+t)	^76mCu(n,d+t)	^76mCu(n,d+t+a)	^76mCu(n,2d)

Reaction #	^76mCu(n,2d+a)	^76mCu(n,2d+t)	^76mCu(n,p)	^76mCu(n,p)

Reaction #	^76mCu(n,p+a)	^76mCu(n,p+a)	^76mCu(n,p+2a)	^76mCu(n,p+He3)

Reaction #	^76mCu(n,p+He3)	^76mCu(n,p+t)	^76mCu(n,p+t)	^76mCu(n,p+t+a)

Reaction #	^76mCu(n,p+d)	^76mCu(n,p+d)	^76mCu(n,p+d+a)	^76mCu(n,p+d+t)

Reaction #	^76mCu(n,p+2d)	^76mCu(n,2p)	^76mCu(n,2p+a)	^76mCu(n,2p+t)

Reaction #	^76mCu(n,2p+d)	^76mCu(n,3p)	^76mCu(n,n)	^76mCu(n,n)

Reaction #	^76mCu(n,n)	^76mCu(n,n)	^76mCu(n,n)	^76mCu(n,n)

Reaction #	^76mCu(n,n+a)	^76mCu(n,n+a)	^76mCu(n,n+2a)	^76mCu(n,n+He3)

Reaction #	^76mCu(n,n+He3)	^76mCu(n,n+He3+a)	^76mCu(n,n+t)	^76mCu(n,n+t)

Reaction #	^76mCu(n,n+t+a)	^76mCu(n,n+t+a)	^76mCu(n,n+t+2a)	^76mCu(n,n+t+He3)

Reaction #	^76mCu(n,n+t+He3)	^76mCu(n,n+d)	^76mCu(n,n+d)	^76mCu(n,n+d+a)

Reaction #	^76mCu(n,n+d+a)	^76mCu(n,n+d+2a)	^76mCu(n,n+d+He3)	^76mCu(n,n+d+He3)

Reaction #	^76mCu(n,n+d+t)	^76mCu(n,n+d+t)	^76mCu(n,n+d+t+a)	^76mCu(n,n+2d)

Reaction #	^76mCu(n,n+2d+t)	^76mCu(n,n+p)	^76mCu(n,n+p)	^76mCu(n,n+p+a)

Reaction #	^76mCu(n,n+p+a)	^76mCu(n,n+p+2a)	^76mCu(n,n+p+He3)	^76mCu(n,n+p+He3)

Reaction #	^76mCu(n,n+p+t)	^76mCu(n,n+p+t)	^76mCu(n,n+p+t+a)	^76mCu(n,n+p+d)

Reaction #	^76mCu(n,n+p+d)	^76mCu(n,n+p+d+a)	^76mCu(n,n+p+d+t)	^76mCu(n,n+p+2d)

Reaction #	^76mCu(n,n+2p)	^76mCu(n,n+2p+a)	^76mCu(n,n+2p+t)	^76mCu(n,n+2p+d)

Reaction #	^76mCu(n,n+3p)	^76mCu(n,2n)	^76mCu(n,2n)	^76mCu(n,2n+a)

Reaction #	^76mCu(n,2n+a)	^76mCu(n,2n+2a)	^76mCu(n,2n+He3)	^76mCu(n,2n+He3)

Reaction #	^76mCu(n,2n+He3+a)	^76mCu(n,2n+t)	^76mCu(n,2n+t)	^76mCu(n,2n+t+a)

Reaction #	^76mCu(n,2n+t+2a)	^76mCu(n,2n+t+He3)	^76mCu(n,2n+d)	^76mCu(n,2n+d)

Reaction #	^76mCu(n,2n+d+a)	^76mCu(n,2n+d+2a)	^76mCu(n,2n+d+He3)	^76mCu(n,2n+d+t)

Reaction #	^76mCu(n,2n+2d)	^76mCu(n,2n+p)	^76mCu(n,2n+p)	^76mCu(n,2n+p+a)

Reaction #	^76mCu(n,2n+p+a)	^76mCu(n,2n+p+2a)	^76mCu(n,2n+p+He3)	^76mCu(n,2n+p+t)

Reaction #	^76mCu(n,2n+p+t+a)	^76mCu(n,2n+p+d)	^76mCu(n,2n+p+d+t)	^76mCu(n,2n+2p)

Reaction #	^76mCu(n,2n+2p+a)	^76mCu(n,2n+2p+t)	^76mCu(n,2n+2p+d)	^76mCu(n,2n+3p)

Reaction #	^76mCu(n,3n)	^76mCu(n,3n)	^76mCu(n,3n+a)	^76mCu(n,3n+a)

Reaction #	^76mCu(n,3n+2a)	^76mCu(n,3n+He3)	^76mCu(n,3n+He3)	^76mCu(n,3n+He3+a)

Reaction #	^76mCu(n,3n+t)	^76mCu(n,3n+t)	^76mCu(n,3n+t)	^76mCu(n,3n+t)

Reaction #	^76mCu(n,3n+t)	^76mCu(n,3n+t)	^76mCu(n,3n+t+a)	^76mCu(n,3n+t+He3)

Reaction #	^76mCu(n,3n+d)	^76mCu(n,3n+d)	^76mCu(n,3n+d+a)	^76mCu(n,3n+d+He3)

Reaction #	^76mCu(n,3n+d+t)	^76mCu(n,3n+2d)	^76mCu(n,3n+p)	^76mCu(n,3n+p)

Reaction #	^76mCu(n,3n+p+a)	^76mCu(n,3n+p+a)	^76mCu(n,3n+p+He3)	^76mCu(n,3n+p+t)

Reaction #	^76mCu(n,3n+p+d)	^76mCu(n,3n+2p)	^76mCu(n,3n+3p)