This paper considers a natural variant of the $d$-dimensional multitype contact process in which individuals can be fertile or sterile. Fertile individuals of type $i$ give birth to an offspring of their own type at rate $λ_i$, the offspring being fertile with probability $p_i$ and sterile with probability $1 - p_i$, whereas sterile individuals can't give birth. Offspring are sent to one of the neighbors of their parent's location and take place in the system if and only if the target site is empty. All the individuals die at rate one regardless of their type and regardless of whether they are fertile or sterile. Our main results show some qualitative disagreements between the spatial model and its nonspatial mean-field approximation that are more pronounced when the probability $p_i$ is small. More precisely, for the mean-field model, in the presence of only one type, survival occurs when $λ_i p_i > 1$, and in the presence of two types, the type with the largest $λ_i p_i$ wins. In contrast, though the analysis of the spatial model shows a similar behavior when $p_i$ is close to one, in the presence of only one type, extinction always occurs when $p_i < 1/4d$. Similarly, a type with $λ_i > λ_c =$ critical value of the contact process and $p_i = 1$ is more competitive than a type with $λ_i$ arbitrarily large but $p_i < 1/4d$, showing that the product $λ_i p_i$ no longer measures the competitiveness. These results underline the effects of space in the form of local interactions.