A theory is developed for the high speed solar wind based on a simple
dissipation length characterization of wave heating of the coronal pla
sma close to the Sun. It is shown that solutions with the correct part
icle and energy fluxes and with a realistic magnetic field, match the
requirements on the density at the base of the corona provided the dis
sipation length is relatively small (similar to 0.25 - 0.5 solar radii
). The significant features of these solutions are that the accelerati
on is rapid, with the sonic point at about 2 solar radii, and the maxi
mum proton temperatures are high, namely 8 - 10 x 10(6) K, which could
be consistent with some recent observations. Such efficient dissipati
on requires any Alfven waves responsible to have frequencies in the ra
nge 0.01 Hz - 10 kHz. This has implications for the nature of the plas
ma and energy source in the chromospheric network.