Hybrid quantum systems no doubt will play a prominent role in the implementation of quantum technologies in the coming century, due to their versatility and potential in control and manipulation of (complex) quantum systems. Bringing these systems into the realm of solid state physics is the next logical step in scaling up these technologies and making them interesting to use in large scale applications. Many experiments have shown such an implementation in solid state devices and many realizations of quantum technologies nowadays rely on a solid state hybrid quantum system in one way or another. On the other hand most physical systems in nature are inherently non-linear, and used in classical examples ranging from lasers to single photon detectors. In this thesis I try to combine these two principles, something that has not been done yet in a solid state hybrid quantum system.