V0 V0 cross section for PI- on C target.

V0 V0 cross section for SIGMA- on CU target.

V0 V0 cross section for SIGMA- on C target.

Feynman X distributions of the first LAMBDA in LAMBDA LAMBDA production from SIGMA- on C and CU targets.

Feynman X distributions of the second LAMBDA in LAMBDA LAMBDA production from SIGMA- on C and CU targets.

Feynman X distributions of the first LAMBDA in LAMBDA LAMBDA production from PI- on C and CU targets.

Feynman X distributions of the second LAMBDA in LAMBDA LAMBDA production from PI- on C and CU targets.

Feynman X distributions of the first LAMBDA in LAMBDA LAMBDA production from N on C and CU targets.

Feynman X distributions of the second LAMBDA in LAMBDA LAMBDA production from N on C and CU targets.

Feynman X distributions of the LAMBDA in LAMBDA K0S production from SIGMA- on C and CU targets.

Feynman X distributions of the K0S in LAMBDA K0S production from SIGMA- on C and CU targets.

Feynman X distributions of the LAMBDA in LAMBDA K0S production from PI- on C and CU targets.

Feynman X distributions of the K0S in LAMBDA K0S production from PI- on C and CU targets.

Feynman X distributions of the LAMBDA in LAMBDA K0S production from N on C and CU targets.

Feynman X distributions of the K0S in LAMBDA K0S production from N on C and CU targets.

Feynman X distributions of the LAMBDA in LAMBDA LAMBDABAR production from SIGMA- on C and CU targets.

Feynman X distributions of the LAMBDABAR in LAMBDA LAMBDABAR production from SIGMA- on C and CU targets.

Feynman X distributions of the LAMBDA in LAMBDA LAMBDABAR production from PI- on C and CU targets.

Feynman X distributions of the LAMBDABAR in LAMBDA LAMBDABAR production from PI- on C and CU targets.

Feynman X distributions of the LAMBDA in LAMBDA LAMBDABAR production from N on C and CU targets.

Feynman X distributions of the LAMBDABAR in LAMBDA LAMBDABAR production from N on C and CU targets.

Feynman X distributions of the first K0s in K0S K0S production from SIGMA- on C and CU targets.

Feynman X distributions of the second K0s in K0S K0S production from SIGMA- on C and CU targets.

Feynman X distributions of the first K0s in K0S K0S production from PI- on C and CU targets.

Feynman X distributions of the second K0s in K0S K0S production from PI- on C and CU targets.

Feynman X distributions of the first K0s in K0S K0S production from N on C and CU targets.

Feynman X distributions of the second K0s in K0S K0S production from N on C and CU targets.

Feynman X distributions of the LAMBDABAR in LAMBDABAR K0S production from SIGMA- on C and CU targets.

Feynman X distributions of the K0S in LAMBDABAR K0S production from SIGMA- on C and CU targets.

Feynman X distributions of the LAMBDABAR in LAMBDABAR K0S production from PI- on C and CU targets.

Feynman X distributions of the K0S in LAMBDABAR K0S production from PI- on C and CU targets.

Feynman X distributions of the LAMBDABAR in LAMBDABAR K0S production from N on C and CU targets.

Feynman X distributions of the K0S in LAMBDABAR K0S production from N on C and CU targets.

Feynman X distributions of the first LAMBDABAR in LAMBDABAR LAMBDABAR production from SIGMA- on C and CU targets.

Feynman X distributions of the second LAMBDABAR in LAMBDABAR LAMBDABAR production from SIGMA- on C and CU targets.

Feynman X distributions of the first LAMBDABAR in LAMBDABAR LAMBDABAR production from PI- on C and CU targets.

Feynman X distributions of the second LAMBDABAR in LAMBDABAR LAMBDABAR production from PI- on C and CU targets.

Feynman X distributions of the first LAMBDABAR in LAMBDABAR LAMBDABAR production from N on C and CU targets.

Feynman X distributions of the second LAMBDABAR in LAMBDABAR LAMBDABAR production from N on C and CU targets.

Transverse momentum distributions of the first LAMBDA in LAMBDA LAMBDA production for SIGMA- on C and CU targets.

Transverse momentum distributions of the second LAMBDA in LAMBDA LAMBDA production for SIGMA- on C and CU targets.

Transverse momentum distributions of the first LAMBDA in LAMBDA LAMBDA production for PI- on C and CU targets.

Transverse momentum distributions of the second LAMBDA in LAMBDA LAMBDA production for PI- on C and CU targets.

Transverse momentum distributions of the first LAMBDA in LAMBDA LAMBDA production for N on C and CU targets.

Transverse momentum distributions of the second LAMBDA in LAMBDA LAMBDA production for N on C and CU targets.

Transverse momentum distributions of the LAMBDA in LAMBDA LAMBDABAR production for SIGMA- on C and CU targets.

Transverse momentum distributions of the LAMBDABAR in LAMBDA LAMBDABAR production for SIGMA- on C and CU targets.

Transverse momentum distributions of the LAMBDA in LAMBDA LAMBDABAR production for PI- on C and CU targets.

Transverse momentum distributions of the LAMBDABAR in LAMBDA LAMBDABAR production for PI- on C and CU targets.

Transverse momentum distributions of the LAMBDA in LAMBDA LAMBDABAR production for N on C and CU targets.

Transverse momentum distributions of the LAMBDABAR in LAMBDA LAMBDABAR production for N on C and CU targets.

Transverse momentum distributions of the LAMBDA in LAMBDA K0S production for SIGMA- on C and CU targets.

Transverse momentum distributions of the K0S in LAMBDA K0S production for SIGMA- on C and CU targets.

Transverse momentum distributions of the LAMBDA in LAMBDA K0S production for PI- on C and CU targets.

Transverse momentum distributions of the K0S in LAMBDA K0S production for PI- on C and CU targets.

Transverse momentum distributions of the LAMBDA in LAMBDA K0S production for N on C and CU targets.

Transverse momentum distributions of the K0S in LAMBDA K0S production for N on C and CU targets.

Transverse momentum distributions of the first K0S in K0S K0S production for SIGMA- on C and CU targets.

Transverse momentum distributions of the second K0S in K0S K0S production for SIGMA- on C and CU targets.

Transverse momentum distributions of the first K0S in K0S K0S production for PI- on C and CU targets.

Transverse momentum distributions of the second K0S in K0S K0S production for PI- on C and CU targets.

Transverse momentum distributions of the first K0S in K0S K0S production for N on C and CU targets.

Transverse momentum distributions of the second K0S in K0S K0S production for N on C and CU targets.

Transverse momentum distributions of the first LAMBDABAR in LAMBDABAR LAMBDABAR production for SIGMA- on C and CU targets.

Transverse momentum distributions of the second LAMBDABAR in LAMBDABAR LAMBDABAR production for SIGMA- on C and CU targets.

Transverse momentum distributions of the first LAMBDABAR in LAMBDABAR LAMBDABAR production for PI- on C and CU targets.

Transverse momentum distributions of the second LAMBDABAR in LAMBDABAR LAMBDABAR production for PI- on C and CU targets.

Transverse momentum distributions of the first LAMBDABAR in LAMBDABAR LAMBDABAR production for N on C and CU targets.

Transverse momentum distributions of the second LAMBDABAR in LAMBDABAR LAMBDABAR production for N on C and CU targets.

Transverse momentum distributions of the LAMBDABAR in LAMBDABAR K0S production for SIGMA- on C and CU targets.

Transverse momentum distributions of the K0S in LAMBDABAR K0S production for SIGMA- on C and CU targets.

Transverse momentum distributions of the LAMBDABAR in LAMBDABAR K0S production for PI- on C and CU targets.

Transverse momentum distributions of the K0S in LAMBDABAR K0S production for PI- on C and CU targets.

Transverse momentum distributions of the LAMBDABAR in LAMBDABAR K0S production for N on C and CU targets.

Transverse momentum distributions of the K0S in LAMBDABAR K0S production for N on C and CU targets.

Differential cross section for LAMBDA LAMBDA production as a function of the difference in XF between the fast (P=3,first LAMBDA) and the slow (P=4,second LAMBDA) member of the pair for N on C and CU targets.

Differential cross section for LAMBDA LAMBDA production as a function of the difference in XF between the fast (P=3,first LAMBDA) and the slow (P=4,second LAMBDA) member of the pair for PI- on C and CU targets.

Differential cross section for LAMBDA LAMBDA production as a function of the difference in XF between the fast (P=3,first LAMBDA) and the slow (P=4,second LAMBDA) member of the pair for SIGMA- on C and CU targets.

Differential cross section for LAMBDA LAMBDABAR production as a function of the difference in XF between the fast (P=3,LAMBDA) and the slow (P=4,LAMBDABAR) member of the pair for N on C and CU targets.

Differential cross section for LAMBDA LAMBDABAR production as a function of the difference in XF between the fast (P=3,LAMBDA) and the slow (P=4,LAMBDABAR) member of the pair for PI- on C and CU targets.

Differential cross section for LAMBDA LAMBDABAR production as a function of the difference in XF between the fast (P=3,LAMBDA) and the slow (P=4,LAMBDABAR) member of the pair for SIGMA- on C and CU targets.

Differential cross section for LAMBDA K0S production as a function of the difference in XF between the fast (P=3,LAMBDA) and the slow (P=4,K0S) member of the pair for N on C and CU targets.

Differential cross section for LAMBDA K0S production as a function of the difference in XF between the fast (P=3,LAMBDA) and the slow (P=4,K0S) member of the pair for PI- on C and CU targets.

Differential cross section for LAMBDA K0S production as a function of the difference in XF between the fast (P=3,LAMBDA) and the slow (P=4,K0S) member of the pair for SIGMA- on C and CU targets.

Differential cross section for LAMBDABAR LAMBDABAR production as a function of the difference in XF between the fast (P=3,first LAMBDABAR) and the slow (P=4,second LAMBDABAR) member of the pair for N on C and CU targets.

Differential cross section for LAMBDABAR LAMBDABAR production as a function of the difference in XF between the fast (P=3,first LAMBDABAR) and the slow (P=4,second LAMBDABAR) member of the pair for PI- on C and CU targets.

Differential cross section for LAMBDABAR LAMBDABAR production as a function of the difference in XF between the fast (P=3,first LAMBDABAR) and the slow (P=4,second LAMBDABAR) member of the pair for SIGMA- on C and CU targets.

Differential cross section for LAMBDABAR K0S production as a function of the difference in XF between the fast (P=3,LAMBDABAR) and the slow (P=4,K0S) member of the pair for N on C and CU targets.

Differential cross section for LAMBDABAR K0S production as a function of the difference in XF between the fast (P=3,LAMBDABAR) and the slow (P=4,K0S) member of the pair for PI- on C and CU targets.

Differential cross section for LAMBDABAR K0S production as a function of the difference in XF between the fast (P=3,LAMBDABAR) and the slow (P=4,K0S) member of the pair for SIGMA- on C and CU targets.

Differential cross section for K0S K0S production as a function of the difference in XF between the fast (P=3,first K0S) and the slow (P=4,second K0S) member of the pair for N on C and CU targets.

Differential cross section for K0S K0S production as a function of the difference in XF between the fast (P=3,first K0S) and the slow (P=4,second K0S) member of the pair for PI- on C and CU targets.

Differential cross section for K0S K0S production as a function of the difference in XF between the fast (P=3,first K0S) and the slow (P=4,second K0S) member of the pair for SIGMA- on C and CU targets.

Cross section as a function of Feynman X for F2PRIME(1525) production with SIGMA- on CU and C targets.

Cross section as a function of transverse momentum for F2PRIME(1525) production with SIGMA- on CU and C targets.

The differential cross sections for K*- production as a function of XL.

The differential cross sections for K*+ production as a function of XL.

Differential production cross sections for K*- as a function of PT**2.

Differential production cross sections for K*+ as a function of PT**2.

Differential cross sections for K*- AND K*+ production from a neutron beam as a function of PT**2.

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