We study the hadronic Bˉs0 decays based on the existence of the resonant state fJ(2220). In particular, we are able to explain the unexpected large experimental result of B(Bˉs0→J/ψppˉ)=(3.0−1.1+1.2±0.52±0.03)×10−6 measured recently by the LHCb collaboration due to the resonant contribution in Bˉs0→J/ψfJ(2220) with fJ(2220)→ppˉ, while it is estimated to be at most of order 10−9 in terms of the OZI rule without the resonance. In addition, we find that B(Bˉs0→D∗0(fJ→)ppˉ)=(4.05±2.46)×10−7, B(Bˉs0→J/ψ(fJ→)ππ)=(15.6±15.2)×10−6 and B(Bˉs0→D∗0(fJ→)ππ)=(21.2±20.9)×10−7, while B(Bˉs0→J/ψ(fJ→)KKˉ)<1.6×10−5 and B(Bˉs0→D∗0(fJ→)KKˉ)<2.2×10−6. Moreover, we predict that the decay branching ratios of Bˉs0→(J/ψ,D∗0)ΛΛˉ are (2.68±1.23)×10−7 and (2.25±0.80)×10−6. Some of the predicted Bˉs0 decays are accessible to the experiments at the LHCb.