  Using the semiclassical quantum Boltzmann theory and employing the Dirac
model with twist angle-dependent Fermi velocity we obtain results for the
electrical resistivity, the electronic thermal resistivity, the Seebeck
coefficient, and the Wiedemann-Franz ratio in near magic angle twisted bilayer
graphene, as functions of doping density (around the charge-neutrality-point)
and modified Fermi velocity $\tilde v$. The $\tilde v$-dependence of the
relevant scattering mechanisms, i.e. electron-hole Coulomb, long-ranged
impurities, and acoustic gauge phonons, is considered in detail. We find a
range of twist angles and temperatures, where the combined effect of
momentum-non-conserving collisions (long-ranged impurities and phonons) is
minimal, opening a window for the observation of strong hydrodynamic transport.
Several experimental signatures are identified, such as a sharp dependence of
the electric resistivity on doping density and a large enhancement of the
Wiedemann-Franz ratio and the Seebeck coefficient.
