The Diósi-Penrose model holds the highest stakes among the objective collapse theories because it explicitly attributes a physical cause to the wave function collapse, proposing a route to unify quantum mechanics and general relativity. If the model is verified, it will profoundly impact fundamental physics. It will not only finally connect the quantum and classical worlds but also explain why all the attempts to quantize gravity have been deceivingly challenging. Indeed, Diósi has recently highlighted exciting parallels between gravitationally-induced collapse and quantum cosmology developments. For all these reasons, significant effort has been dedicated to understanding the Diósi-Penrose model's theoretical basis and seeking its experimental verification. Our understanding of the transition between quantum and classical worlds is incomplete. Taken separately, quantum mechanics and classical mechanics are astounding successes in their respective validity domains. Nevertheless, ask most physicists how a collection of quantum objects may engender a classical system. We will inevitably listen to a historical digression with terms like "Copenhagen interpretation" and "Many-worlds hypothesis," followed by a candid admission that we still do not know the answer to the measurement problem or why quantum mechanics describe superpositions, but we only observe definite results.