without actual particle motion. In this region, the heat flow dominates the quasiparticle correlation giving rise to full heat flow noise with F = 1. In the intervals between resonant levels, heat flow and quasiparticle correlation both approach a background level inducing zero pump shot noise. In summary, a quantum pump device involving domain walls in a magnetic nanowire is investigated. For two independent adiabatically modulated parameters of this device a finite net charge current is transported. The quantum pumping mechanism resembles the quantum pump based on two-oscillating-gate quantum dot and is to some extent analogous to the classical turnstile picture. The pumping current, heat flow, and shot noise demonstrate peak structures at the spin-split quasistationary levels in the spin-quantum well formed by the domain walls. The strength of the pump current decreases exponentially with the decrease of the quasistationary-state lifetime. The latter is governed by the width of the domain wall. The sideband formation during the pumping process is sizable particularly for narrow domain wall for which level broadening due to spin-mixing is relatively small. The correlation between quasielectrons and quasiholes shows antibunching behavior as they move in opposite directions. This is concluded from the ratio between the pump shot noise and the heat flow. 11 IV. CONCLUSIONS