A theoretical model is developed to compute electronic transport coefficients extending from warm and dense to hot and dilute plasma conditions. This kinetic theory-based approach models strong Coulomb correlations by treating collisions using the potential of mean force, electron degeneracy using the Uehling-Uhlenbeck equation, and diffraction by computing cross sections quantum mechanically. Hydrodynamic transport coefficients are computed by solving the Uehling-Uhlenbeck equation using the Chapman-Enskog method. The result provides a fast and accurate means to compute electrical conductivity, thermal conductivity and electrothermal coefficients, including contributions from electron-electron collisions. The model enables accurate calculation of materials properties in many warm dense matter systems, including inertial confinement fusion, stellar evolution, and high energy density plasma experiments.