A benchmark on ∼20 compounds revealed an accuracy within 20% of DFPT at three orders of magnitude less computational expense. The AMSET workflow in atomate2 automates the calculation of all materials properties required to obtain electronic transport. The main inputs are a structure and the temperature and doping concentrations of interest. The workflow begins with an initial structural relaxation with tight convergence settings to avoid the presence of imaginary modes. The elastic tensor, dielectric tensor, piezoelectric tensor, and band structure are obtained using the workflows described above. Deformation potentials are calculated by applying a series of strains to the unit cell, followed by static calculations, and the comparison of the band energies to a reference unperturbed static. The wavefunction coefficients are extracted from a dense band structure calculation, while an averaged polar optical phonon frequency is obtained from the Γ-point DFPT calculation used to obtain the ionic dielectric constant. As with all BTE implementations, the resulting transport properties are highly sensitive to the density of the k-and q-point sampling used to integrate the matrix elements. The workflow includes automated convergence checking to sequentially increase the interpolated mesh density until transport properties converge. Two versions of the workflow are provided, one based on GGA inputs and another more accurate but more expensive version using HSE06.