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Science News

Finding Riddles of Physical Uncertainty

I. Peterson

Published Sep 18, 1993• 1 citation
Publisher
DOI
10.2307/3977476

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The cat paradox a little about paradoxes more about Schrodinger's cat what is probability? concrete objects classes of concrete objects abstract objects the key principle Einstein-Podolsky-Rosen's (EPR's) paradox angular momentum and spin Bohm's paradox polarization of photons aspect's experiment a short stop for reflections properties of concrete human beings mutual understanding an individual and society social sciences, utopias and doctrines how reliable is a poll? probabilities revisited states and beyond what is quantum physics? the Schrodinger equation - its origin and meaning what is a particle? Is it a corpuscle, a wave, or both? the double-slit Gedankenexperiment - what does it prove? Wheeler's delayed choice experiment a brief discussion of the Heisenberg's uncertainty principle is the world real? the mystery of the photon.
In this work a very simple model of physical experiential creation is developed and then used to provide a single, consistent, and clear solution to the riddles posed by the phenomena that lie at the heart of quantum physics. By providing a unitary framework for understanding all of these heretofore inexplicable phenomena, this model demonstrates that physical reality is a reality that has to be created in order to be known. What this model also demonstrates is that the way in which physical reality is created is through a specific type of relation that takes place at a level of reality that is more fundamental than the physical level of reality. Understanding that physical reality has to be created in order to be known first makes it possible to recognize the experiential mechanism that produces wave-particle duality. Recognizing that experiential mechanism then makes it possible to identify and define the fundamental limitation that exists in the creation of physical experience that produces quantum uncertainty. Following that, that same experiential mechanism and limitation is then used to explain both the creation and collapse of the wave function, as well as quantum nonlocality. Ultimately, this model of physical experiential creation, by providing a single solution to all of these heretofore insoluble riddles, allows for the unification of classical and quantum physical experiential reality, by demonstrating that the only difference between determinate classical physical reality and indeterminate quantum physical reality lies in the relational conditions under which each of these physical experiential realities is created. What this model also makes clear is that the probability or randomness that is so much a part of quantum theory is not an actual feature of reality, but is only an artifact of the process by which quantum physical reality is created, thereby vindicating Einstein for his never-relinquished view that reality is not fundamentally probabilistic.
Physics Scratches a Philosopher's Itch Philosopher Elise Crull muses over interpretations of quantum physics, focusing on experiments that cast doubt on our classical notions of causality.By Michael Schirber W hich came first, the chicken or the egg?Both, says Elise Crull, who bases her answer on recent experiments that show that causal sequences can get mixed up in quantum circuits.A philosopher of physics at The City College of New York, Crull studies the results of experiments like these to try and tease out their meaning.Can causality coexist with quantum uncertainty?Why does the arrow of time point in one direction?Crull says that she doesn't yet know the answers to these questions, but she thinks scientists could benefit from pondering such riddles.