- Chaos is too complex to be modeled.
- Chaotic processes can become deterministic but not necessarily helpful.
- Randomness is chaotic, by definition. Inexplicable random events?
- Are random events one-offs or part of a process? A random process is a sequence of random variables whose outcomes do not follow a deterministic pattern but follow an evolution described by probability distributions.
- The cosmological constant has to be enormously finely tuned to prevent the universe from rapidly exploding or collapsing to a point. It has to be finely tuned for life to have a chance.
- Free will is just a name given to our ability to decide.
- Quantum fields are energy fields.
- Each quantum is a highly unified, spatially extended bundle of field energy. We observe these fields whenever we detect a photon, an electron, or a positron. We have even followed the quantum vacuum field or zero-point energy field that still exists even when there are no quanta (no waves, no disturbances): The Lamb shift and the Casimir effect, as well as spontaneous decay (such as photon emission from an atom), are examples of the direct impact of this vacuum field. The energy field from which all quantum phenomena, those in a superposition of 0 and 1, have unpredictable results. Researchers can easily measure a quantum system. They generated random numbers in two steps.
- Random behavior, not chaotic, overcomes bias in the unpredictable short term.
- Quarks are in each proton and are bound by a force that causes all other known forces of nature to fade.
- Spacetime is four-dimensional (three dimensions of space, one of time) and isometric under translations and rotations. This theory assumes the existence of our universe but doesn’t provide any insight into how particles work.