  We discuss the statistical correlation properties of currents and energy
flows generated by an adiabatic quantum pump. Our approach emphasizes the
important role of quantized energy exchange between the sea of electrons and
the oscillating scatterer. The pump-frequency introduces a natural energy
scale. In the low temperature limit, thermal energy much smaller than a
modulation quantum, the pump generates a shot-like noise which manifests itself
in photon-assisted quantum mechanical exchange amplitudes. In the high
temperature limit, thermal energy much larger than a modulation quantum, the
pump producesa thermal-like noise due to ac-currents generated by the pump. We
predict that with increasing temperature the frequency dependence of the noise
changes. The current noise is linear in pump-frequency at low temperatures, is
quadratic at intermediate temperatures, and is linear again at high
temperatures. Similarly, in the same temperature regions, the heat flow noise
is proportional to the third, second and first power of the pump-frequency.
