Sensing the Emergence of New Structure in Matter and Life and Its Impact on Physics, Chemistry, and Biology, in a Light-Based Quantum Computational Model

Recognition of new patterns in layers of matter and life is heavily dependent on the foundational schema or model that animates a sensing computational system. A symmetrical, fourfold light-based quantum computational model that links together layers such as quantum particles and molecular plans in cells, among other layers is positioned as the schema required to model a range of existing and even emerging patterns in and across levels. Fourfoldness in the model—related to four parts of a single pattern—stipulates the default way in which pattern recognition occurs. When conditions in the model are fulfilled such that the fourfoldness has reached a threshold level, then a fifth property implicit in the model surfaces, which allows specific emerging categories of patterns related to fivefoldness to be recognized. The prerequisite condition for such recognition is related to fourfold meta-function in source layers being more easily reflected in the external layers of the model, which morphs the mathematics of the model itself, to allow patterns related to the implicit or fifth property to also be recognized. Therefore, dynamics that we associate with space, time, energy, gravity, or the layer of quantum particles, or the layer of atoms, or the layer of molecular plans, can be parsed in terms of fourfold patterns, subsequently allowing the possibility of recognition of emerging patterns related to fivefoldness. Recognition of such patterns will provide additional insight into the changing physics, chemistry, and biology of target systems.