You don’t think practice while drunk would transfer to non-drunk? I guess there’s the issue of state-dependent memory, but I think a plausible strategy is to start your creative sessions drunk and then gradually decrease the amount of alcohol involved over time.
Alcohol is a depressant—it binds to pre-synaptic receptors for the brain’s major inhibitory neurotransmitter, gamma aminobutyric acid (GABA). The delta subunit containing GABA receptor, to which alcohol’s ethanol has now bound, allows for influx of negatively charged Chlorine into the pre-synaptic GABAergic (GABA transmitting) cell; the cell’s charge is lowered, which inhibits further action potentials. Cells that transmit GABA will inhibit other cells; hyperpolarising (making the cell’s net charge negative) the inhibitory pre-synaptic GABAergic cell dis-inhibits the post-synaptic cell, which may be excitatory or inhibitory. In the general case of the post-synaptic cell being excitatory, one’s brain will become less inhibited—which is not a good thing for cognitive computation.
Due to physics I confess to not presently comprehend, an entirely uninhibited brain will fire in synchrony. Synchrony of action potential frequency has been observed and mathematically measured to result in decreased cognitive performance: asynchronous brain activity is high performance brain activity (beta waves). I understand it from a reactivity perspective—in order to respond quickly to a stimulus, one needs to inhibit their current action and respond to that stimulus; GABAergic neurones are critical to that inhibition.
In sum, while a buzzed person may feel very happy and jumpy, their reduced cognitive ability to inhibit active firing patterns hinders cognitive performance (they are jumpy because motor neurones are being dis-inhibited, too).
With sufficient ethanol saturation voltage-gated sodium channels become less able to detect changes in the charge of their proximity; non-polar lipid-like ethanol does not conduct electricity. Impaired ability to respond to environmental changes around the cell fetters neurone firing, leading to a drunkard’s depressed, or rather retarded behaviour.
From a speculative standpoint, perhaps the increased excitability and decreased potential for inhibition conduces fewer cognitive interruptions along the lines of, “Hey, listen! To experience an instant reward go to Hyrule!” One’s thoughts, literally, cannot be stopped enough to have that thought.
It’s still depressing neurones; the neurones it’s depressing are inhibitory neurones, which dis-inhibits excitatory neurones. Your comment prompted me to do a research-check, and it turns out I was completely wrong (don’t theorise beyond your nose, eh?). The above comment now reflects reality.
You don’t think practice while drunk would transfer to non-drunk? I guess there’s the issue of state-dependent memory, but I think a plausible strategy is to start your creative sessions drunk and then gradually decrease the amount of alcohol involved over time.
Alcohol is a depressant—it binds to pre-synaptic receptors for the brain’s major inhibitory neurotransmitter, gamma aminobutyric acid (GABA). The delta subunit containing GABA receptor, to which alcohol’s ethanol has now bound, allows for influx of negatively charged Chlorine into the pre-synaptic GABAergic (GABA transmitting) cell; the cell’s charge is lowered, which inhibits further action potentials. Cells that transmit GABA will inhibit other cells; hyperpolarising (making the cell’s net charge negative) the inhibitory pre-synaptic GABAergic cell dis-inhibits the post-synaptic cell, which may be excitatory or inhibitory. In the general case of the post-synaptic cell being excitatory, one’s brain will become less inhibited—which is not a good thing for cognitive computation.
Due to physics I confess to not presently comprehend, an entirely uninhibited brain will fire in synchrony. Synchrony of action potential frequency has been observed and mathematically measured to result in decreased cognitive performance: asynchronous brain activity is high performance brain activity (beta waves). I understand it from a reactivity perspective—in order to respond quickly to a stimulus, one needs to inhibit their current action and respond to that stimulus; GABAergic neurones are critical to that inhibition.
In sum, while a buzzed person may feel very happy and jumpy, their reduced cognitive ability to inhibit active firing patterns hinders cognitive performance (they are jumpy because motor neurones are being dis-inhibited, too).
With sufficient ethanol saturation voltage-gated sodium channels become less able to detect changes in the charge of their proximity; non-polar lipid-like ethanol does not conduct electricity. Impaired ability to respond to environmental changes around the cell fetters neurone firing, leading to a drunkard’s depressed, or rather retarded behaviour.
From a speculative standpoint, perhaps the increased excitability and decreased potential for inhibition conduces fewer cognitive interruptions along the lines of, “Hey, listen! To experience an instant reward go to Hyrule!” One’s thoughts, literally, cannot be stopped enough to have that thought.
While ethanol is neurodepressant overall, its effects can initially mirror those of a stimulant (‘biphasic’).
It’s still depressing neurones; the neurones it’s depressing are inhibitory neurones, which dis-inhibits excitatory neurones. Your comment prompted me to do a research-check, and it turns out I was completely wrong (don’t theorise beyond your nose, eh?). The above comment now reflects reality.