Temporal-fluid dynamics, traditionally focused on the evolution of fluid flows, has recently been extended to incorporate the concept of wave function collapse, a theoretical framework suggesting the potential for self-oscillating systems with adaptive behavior. This paper explores the integration of this novel concept, proposing a mechanism for simulating wave function collapse as a core dynamic process. The aim is to develop a simulation framework capable of generating highly complex, self-oscillating systems exhibiting adaptive behavior, driven by the collapse of wave functions. We outline the core mechanism for triggering this collapse and discuss the potential implications for understanding complex system dynamics. We will present a preliminary model and analysis demonstrating the potential for creating such systems.