Evidence of Shared Aspects of Complexity Science and Quantum Phenomena
Keywords:Complexity, Chaotic complexity, Complexity science, Emergence, Quantum physics, Self-organization, Initial conditions, Contextuality, Quantum entanglement, Artificial intelligence
AbstractComplexity science concepts of emergence, self-organization, and feedback suggest that descriptions of systems and events are subjective, incomplete, and impermanent-similar to what we observe in quantum phenomena. Complexity science evinces an increasingly compelling alternative to reductionism for describing physical phenomena, now that shared aspects of complexity science and quantum phenomena are being scientifically substantiated. Establishment of a clear connection between chaotic complexity and quantum entanglement in small quantum systems indicates the presence of common processes involved in thermalization in large and small-scale systems. Recent findings in the fields of quantum physics, quantum biology, and quantum cognition demonstrate evidence of the complexity science characteristics of sensitivity to initial conditions and emergence of self-organizing systems. Efficiencies in quantum superposition suggest a new paradigm in which our very notion of complexity depends on which information theory we choose to employ.
How to Cite
Larson, C. (2016). Evidence of Shared Aspects of Complexity Science and Quantum Phenomena. Cosmos and History: The Journal of Natural and Social Philosophy, 12(2), 160–171. Retrieved from http://cosmosandhistory.org/index.php/journal/article/view/562