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I don't see where I did that. Try again?
I only make fun of your attempts to shoehorn your theology into your straw-man versions of scientific theories.
My own theorists? You are mistaken - I don't have any of those.
Did you not say earlier than the brain was electrochemical? That would rule out this "pure energy being" of yours working anything like we see in a brain.
Why does it matter that it was a priest? Cannot a priest be a scientist?
My own science? Cool. How did that happen. Does it pay well? Where do I collect?
Not according to inflation theory. Energy can be created, in balance with negative energy, without violating the laws of thermodynamics. Are you not familiar with the standard model of cosmology and inflation theory?
Or, based on available evidence, it is just a character in a book.
It was the part where you said that the brain was electrochemical in process. That would rule out a being of pure energy, unless you can present evidence to the contrary.
Philosophers, working within neuroscience, have moved beyond the 17th century.
My understanding is that the updated version would be more like: My brain thinks, and in that process temporarily creates a "transparent self-model".
Being No One with Thomas Metzinger - YouTube
And the brain operates through electric currents and electrochemical signals.
I mean, have you ever hear of an EEG?
Electroencephalography - Wikipedia, the free encyclopedia
Or an action potential?
Action potential - Wikipedia, the free encyclopedia
"In physiology, an action potential is a short-lasting event in which the electrical membrane potential of a cell rapidly rises and falls, following a consistent trajectory...
Action potentials are generated by special types of voltage-gated ion channels embedded in a cell's plasma membrane.[2] These channels are shut when the membrane potential is near the resting potential of the cell, but they rapidly begin to open if the membrane potential increases to a precisely defined threshold value. When the channels open (by detecting the depolarization in transmembrane voltage[2]), they allow an inward flow of sodium ions, which changes the electrochemical gradient, which in turn produces a further rise in the membrane potential. This then causes more channels to open, producing a greater electric current across the cell membrane, and so on. The process proceeds explosively until all of the available ion channels are open, resulting in a large upswing in the membrane potential. The rapid influx of sodium ions causes the polarity of the plasma membrane to reverse, and the ion channels then rapidly inactivate. As the sodium channels close, sodium ions can no longer enter the neuron, and they are actively transported out of the plasma membrane. Potassium channels are then activated, and there is an outward current of potassium ions, returning the electrochemical gradient to the resting state. After an action potential has occurred, there is a transient negative shift, called the afterhyperpolarization or refractory period, due to additional potassium currents. This is the mechanism that prevents an action potential from traveling back the way it just came."
Which leads to:
Voltage-gated ion channel - Wikipedia, the free encyclopedia
"Voltage-gated ion channels are a class of transmembrane ion channels that are activated by changes in electrical potential difference near the channel; these types of ion channels are especially critical in neurons, but are common in many types of cells. They have a crucial role in excitable neuronal and muscle tissues, allowing a rapid and co-ordinated depolarization in response to triggering voltage change. Found along the axon and at the synapse, voltage-gated ion channels directionally propagate electrical signals."
There is no laboratory result or theory that does not include electrical operation of the brain.
You apparently do not understand what electrochemical means.
Electrochemistry - Wikipedia, the free encyclopedia
"Electrochemistry is a branch of chemistry that studies chemical reactions which take place in a solution at the interface of an electron conductor (the electrode: a metal or a semiconductor) and an ionic conductor (the electrolyte). These reactions involve electron transfer between the electrode and the electrolyte or species in solution. If a chemical reaction is driven by an externally applied voltage, as in electrolysis, or if a voltage is created by a chemical reaction as in a battery, it is an electrochemical reaction. In contrast, chemical reactions where electrons are transferred between molecules are called oxidation-reduction (redox) reactions. In general, electrochemistry deals with situations where redox reactions are separated in space or time, connected by an external electric circuit."
Sorry, but your psuedoscientific beliefs are not supported by science, nor your ignoring the electrical force.
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