The effects of gallium and indium p-type doping on the photoconductivity of hydrogenated amorphous germanium ͑a-Ge:H͒ thin films deposited by the rf-sputtering method are reported. The quantum efficiency-mobility-lifetime ͑͒ product was determined at room temperature as a function of the dark Fermi energy E F on samples with a relative dopant concentration range between Ϸ3ϫ10 Ϫ5 and Ϸ10 Ϫ2. A decrease of is observed with the increase of the Ga concentration until a minimum is reached for compensated samples ͑E F close to midgap level͒, where is about 16 times lower than the value obtained for intrinsic samples. This behavior is followed by an increase as E F crosses the midgap level. Then, for higher Ga doping levels, decreases again. For In-doped samples, on the other hand, a monotonic decrease of is measured for all the impurity concentration range. These results are consistent with a model which assumes that the dangling bond is the main recombination path, and give independent evidence for the lack of correlation between the defect density and E F in p-type doped a-Ge:H.