A quantum collapse in the brain gives rise to consciousness, and that consciousness creates the reality we see from the quantum world.
QUANTUM MECHANICS: Before a wave collapses from a superposition, particles/waves go here and there. You see what is, not what was. Chances are the result.
Frequency illusion, also known as the Baader–Meinhof phenomenon, is a cognitive bias. After noticing something for the first time, there is a tendency to see it more often, leading someone to believe it has a high frequency (a form of selection bias.) Selective attention reinforces a newly learned concept.
Conscience is a cognitive process that elicits emotion and rational associations based on an individual’s moral philosophy and value system.
The light of the mind is red. You have matter stuff and mind stuff. Nothing is confirmed until you think about it.
Consciousness poses the most baffling problem in the science of the mind. When we think and perceive, there is a whir of information-processing in the brain, in a very distinctive subjective state of mind.
The explanation for why and how we have subjective experiences is this:
Quantum Mechanics is a binary function that interacts with the classical mechanics of all triune masses. The interaction function is the same as in quantum computing. It is a qubit interaction. It is the basic unit of quantum information exchange. A quantum mechanics bit deals with the triune matter unit. It is a two-state interactive mechanism. It generates the feeling of being.
We only see illusions of what is:
Light is involved in the signaling processes that constitute the central nervous system and its emergent property, consciousness.
The light of the conscious mind is red:
The link between intelligence and the frequency of biophotons in your brain points to increased intelligence associated with a shift in the biophoton’s frequency towards the red end of the spectrum. As always, correlation does not necessarily beget causation.
Biophotons are photons (light particles) generated within the body, which could be measured as they emanate from the skin. The amount of energy is directly proportional to the photon’s electromagnetic frequency and, thus, equivalently, is inversely proportional to the wavelength. The higher the photon’s frequency, the higher its energy. Equivalently, the longer the photon’s wavelength, the lower its energy.
In quantum biology, the quantum effects of superposition, coherence and decoherence, tunneling, and entanglement play an essential role. Superposition is a property of the quantum world that allows a physical system to exist in two or more quantum states until a measurement is made on it. Quantum coherence quantifies this relationship of states in a superposition. And its counterpart, decoherence, describes the loss of such quantum effects. Quantum tunneling, meanwhile, involves a particle passing through an energy barrier despite lacking the energy required to overcome the obstacle, as would be defined by classical physics. Quantum entanglement allows two particles, such as photons or electrons, to have a much closer relationship than is predicted by classical physics. Physicists have transmitted pairs of entangled photons over increasing distances, both in the air and along optical fibers.
