Are we all in a quantum state, the uncertainty of life, an artist view.
365 views · Published 17 October 2010 · 3:05 · Indexed 20 October 2026
Channel: Dyslexic Artist Theory on the Physics of Time · 2010 · Gaming
Is everything in a quantum state of probability? Not just Schrödinger's cat but everything in our everyday life. If this is so could it not be possible that we see and feel this quantum probability as the forward passage of time. This theory is based on two simple ideas the first is, that Schrödinger's wave equation represents the arrow of time itself, photon by photon, or moment by moment. The second idea is that Heisenberg's Uncertainty Principle is the same uncertainty that we have with any future event. From these two simple ideas, quantum mechanics can be explained in a way that is exactly the same as our everyday experience of nature and time, moving from a known past into an uncertain future. Only a universal and continuous process could create the diversity we see within our Universe. In Quantum Atom Theory this process is formed by the quantum particle wave-function. This is continuously forming new photons in space, and new moments in time, that will have a potential uncertainty forming the future geometry of spacetime. The wave-particle duality of light can be explained as a process forming the passage of time. The continuous inward absorption and outward emission of light or EMR forms the arrow of time within a dynamically evolving universe.
More from this channel
-
2:59
Portraits of Audrey Hepburn oil paintings and pencil drawinging
-
4:58
The Two Slit Experiment, Quantum Physics explained - early 2009 video on Quantum Atom Theory
-
4:42
The Observer and free will, Quantum Mechanics Explained ~ 2009 Video, take a look at my newer videos
-
4:28
The Light Constant, Quantum Physics explained ~ 2009 video on the early formation of QAT
-
5:13
A New Quantum Theory on Light and Time part one
-
8:49
A New Quantum Theory on Light and Time part two
-
9:52
Quantum Mechanics the probability of Time
-
9:48
Quantum Physics and Classical Physics