Neuron Manipulation
Values and Probabilities in Systematic Political Science:
Exploring
In Vivo and In Vitro Influences on the Human Decision Making Apparatus
from Neuroscience and Neurocardiology
by
Dallas F.
Bell, Jr.
1. Introduction
Knowing how humans make decisions
to base subsequent behavior is of obvious importance to the field of
systematic political science. The billions of neurons in the body
act like computer logic gates to process input and send output to other
cells. (Please see the paper by Dallas F. Bell, Jr. titled Logic
Gates and Neurons: Intelligent Design and Programming Found in
Computers and Neuroscience.) Neuroscientists are making great
advances in understanding all aspects of the complex human nervous system.
For example, neurons found
in the brain were once considered to be the only control of body functions.
In 1991, the neurocardiologist, J. Andrew Armour, introduced groundbreaking
research that documented the neural processing and memory capabilities
of the heart's nervous system. That cardiac data indicated the
heart is a sensory organ that encodes and processes input making it
correctly called a "heart brain". It can process information
and make decisions about its control separately from the nervous system.
As an embryo, the heart self
initiates and begins to beat before the brain is even formed.
It has a functional "brain" that communicates with and influences
the cranial neurons through the nervous system, the hormonal system,
and etc. People have known for a long time that fear and anger
cause disease whereas love and forgiveness cause wellness. Extremely
stressful events e.g. war can be associated with increased mortality
from disease as is documented in geriatric neurocardiology studies.
Social factors such as not being married or having a relatively low
income also correlate to increased mortality rates.
In the tenth century B.C.,
the Hebrew King Solomon was recorded to say that as a man thinks in
his heart so is he. Many centuries later Aristotle ascribed power
of thought to the heart and contended that it also contained the soul.
Concerning neurons, it seems worthwhile to have a scientific understanding
of the human physiology for decision making. Then the values and
probabilities of possible neuron manipulation become more evident.
2. A Physiological
Focus on the Human Decision Making Apparatus--Neurons
Physiology, meaning nature-word,
of human neurons can begin with the neuron response to stimuli.
There is an unequal distribution of charged atoms, called ions, on each
side of the nerve cell membrane. The difference in distribution
of ions on the outside compared to the inside is referred to as the
resting state. A basic state has a voltage of -70mV difference across the
cell membrane. This means the cytoplasm has a slight negative
charge. Two ions, Na+ (sodium) and K+ (potassium), maintain the
state. A transport mechanism or pump removes the sodium from the
cell and imports potassium maintaining a slightly higher sodium level
outside relative to the sodium inside.
The nerve cell membranes also
have passages for the two ions called sodium gates and potassium gates.
When an input is received on the dendrites from other neurons, and is
stimulatory, it leads to depolarization of the cell body of the neuron.
Sodium gates open and allow sodium ions to flow into the cell which
reduces the voltage difference between the inside and outside, thus
depolarizing the cell membrane.
An action potential is a very
rapid change in membrane potential that occurs when a nerve cell membrane
is stimulated sufficiently to cause depolarization to the threshold
level of that neuron. The membrane potential goes from -70mV resting
potential to a positive value around +30mV within a few milliseconds.
If the membrane potential reaches the threshold potential of 5-15mV
less negative than the resting potential, the voltage-regulated sodium
gates or channels all open. Sodium ions rapidly come in and cause
depolarization.
The spike of depolarization
is called an all-or-nothing action potential. There isn't a
weak action potential. Either the threshold potential is reached
and an action potential occurs or it does not. The depolarization
is quickly reversed due to the voltage-sensitive potassium gates or
channels which open to allow potassium ions to leave the cell and reverse
the voltage spike. The potassium departure may take the voltage
to -90mV before returning to the resting state. Because each action
potential is all-or-nothing there isn't a decrease in the amplitude
of the spike as it goes down the axon. The frequency is the number
of action potentials per unit of time. Electrons flow and develop
oppositely charged areas or mini-circuits. The mini-circuits stimulate
adjacent areas and create an action potential. This is repeated
and action potentials move down the nerve cell membrane and are referred
to as an impulse.
Action potentials are only
transmitted within neurons and must send the message to the next neuron
until it reaches it targeted cell such as a muscle cell. The electrical
signal may be converted into a chemical signal that is transmitted across
a synapse. The depolarization of an action potential at the end
of an axon causes calcium channels in the membrane at the terminus to
open and send calcium into the cell. That calcium signal causes
vesicles of neurotransmitters in the pre-synaptic cell to bond to the
cell membrane and release the neurotransmitters in the synaptic gap.
They diffuse and interact with the receptor on the targeted cell which
opens the channels in the membrane of the post-synaptic cell thereby
changing the voltage difference in that cell taking about one millisecond.
Excitatory neurotransmitters
like acetylcholine make membrane potential less negative due to increased
sodium making transmission of an impulse more likely. Inhibitory
neurotransmitters like gamma amino-butyric acid (GABA) and beta-endorphin
make the membrane potential more negative due to increases in potassium
making transmission of an impulse less likely.
Summation is the process by
which a stimulus produces a response and cumulatively induces a nerve
impulse. Temporal summation is the transmission of an impulse
by rapid stimulation of one or more pre-synaptic neurons over a period
of time. Spatial summation is the transmission of an impulse by
simultaneous stimulation of two or more pre-synaptic neurons.
Material change can be seen to occur when thoughts of compliance with
natural laws are entertained. Likewise, change occurs with thoughts
of noncompliance of natural law and that missing the mark of infinite
standards is divinely knowable. Therefore, it is said that all finite
people have missed the righteous mark of perfect compliance and fallen
short of the glory of God.
Neuromodulators are chemicals
such as endorphins that regulate pain by modifying the response in the
synapse; enzymes that remove neurotransmitters to allow a new signal
across the synapse; and neurotransmitter transporters that reabsorb
the neurotransmitters for reuse. All those areas are vulnerable
to manipulation. A few common examples are Valium for GABA, parathion
and carbaryl for acetylcholine, and cocaine and Prozac that inhibit
transporters for excitatory neurotransmitters. GABA is used to
treat epilepsy.
3. Neuron
Manipulation Values and Probabilities in
Systematic Political Science
Several examples of neural
manipulation were covered in the preceding paragraph. They imply
that neural tissue may be seen as a series of embedded mathematically
describable systems that can be measured and manipulated. Neural
engineers study the sensor properties of neurons and can use the results
to treat retinas or create cochlear implants. The growth of nerve
cells can be directed using lasers which could provide treatment for
spinal cord injuries. Genetically engineered neurons can produce
larger amounts of the protein integrin which could enhance nerve growth
to treat strokes. If the protein actin had its equilibrium manipulated
then so could synaptic plasticity which could offer control over learning
potential.
Systematic political science
should qualify both negative and positive types of neuron manipulation
as listed above. Though the neuron's innate theological program
can't be changed its response can be modified accordingly i.e. x response
can be rejected and "not" x adopted.
The first category in vivo,
meaning inside a living organism, is meant to include the manipulation
location of a subject or host's neurons have originated from inside
the host.
The second location is in vitro,
literally meaning under glass which traditionally describes actions
taken outside the host. The term in vitro will be used to describe
action taken from outside the host to influence neurons inside the host.
In vivo and in vitro have two subcategories. One is manipulation
action initiated by the host. The second is manipulation action
taken by those other than the host to affect the host's neurons.
Each category will be assigned
a truth value of either a (1) to represent compliance with natural law
and is a positive manipulation or a (0) to represent noncompliance with
natural law and is a negative manipulation. A logic value for
each of the three possible theological (T) tracks will correspond to
one of the two truth values as either in agreement with the truth value
and be represented by a (1) or not be in agreement and be represented
by (0). The combination of those values will create a set that
can be used to determine high, moderate, and low probabilities for positive
or negative neural manipulation. An example scale can be seen
below.
(individual) logic values
(fixed) truth values
T1 T2 T3
manipulation example x = (1) likely (1); (1-0); (0)
= (0) (0); (0-1); (1)
A set with a truth value of
(1) and a logic value of (1) indicates a high probability of positive
manipulation for that specific manipulation area.
A set with a truth value of
(0) and a logic value of (0) indicates a low probability of negative
manipulation for that specific manipulation area.
A set with a truth value of
(1) and a logic value of (0) indicates a low probability of positive
manipulation for that specific manipulation area
A set with a truth value of
(0) and a logic value of (1) indicates a high probability of negative
manipulation for that specific manipulation area.
Other set combinations indicate
only moderate probabilities for positive and negative manipulation for
that specific manipulation area.
It should be noted that if
sigma-algebra is used that algebras over a set may not be inverted as
in other algebras.
3.1. In Vivo
Only the manipulation area
and the truth values will be given since the individual logic values
T template from the manipulation example above can be easily superimposed
by the reader.
self manipulation by
the host
diet (balanced) = (1)
(not balanced) = (0)
meditation (on natural laws and confessing noncompliance or missing the
mark including prayer to and worship of God) = (1)
(not on natural law) = (0)
chemical (for health) = (1)
(not for health) = (0)
manipulation by those
other than the host
diet (balanced) = (1)
(not balanced) = (0)
chemical (for health) = (1)
(not for health) = (0)
electrical (for health) = (1)
(not for health) = (0)
nanotechnology (for health) = (1)
(not for health) = (0)
3.2. In Vitro
self manipulation by
the host
read (natural law including God's scriptures) = (1)
(not natural law) = (0)
stimulation (balanced including music) = (1)
(not balanced depleting serotonin and/or
adrenal glands) = (0)
manipulation by those
other than the host
dialogue (of truth) = (1)
(not of truth) = (0)
propaganda (from untruth) = (1)
(from truth) = (0)
corporal punishment (proportional) = (1)
(not proportional) = (0)
need levels (facilitate achievement) = (1)
(not facilitate achievement or threaten a level
including sensory deprivation) = (0)
stimulation (balanced) = (1)
(not balanced) = (0)
4. Conclusion
It has been demonstrated that
neurons like computers are vulnerable to both positive and negative
manipulation either in vivo or in vitro originating for the host or
from those other than the host respectively. The motivation for
the manipulation either is to be compliant with natural law or it is
not. The truth values and logic values can be combined to form
sets which imply probability of decision making and subsequent behavior.
If the neuron potentials are compliant with natural law there is less
stress or cognitive dissonance from the a priori theological
neural programming than for noncompliance.
Zeno has been credited with
explaining that one can never get to a destination by distances of mathematical
fractions such as traveling half the distance. If one travels
any fraction of the total distance, then travels any fraction of the
total distance left, the complete distance can never be spanned.
Infinite concepts or truth have such characteristics. They can
never be reached by a finite intellect unless the destination is beyond
the truth concepts themselves and to the embodiment of infiniteness--God.
This has been proven by those like Paul the Apostle who used Zeno's
strategy of reductio ad absurdum, which means to deductively
follow a path of untruth with logic to the point where its absurdity
becomes obvious.
The heart can live without
the brain but the brain cannot live without the heart. The Bible
says that fools follow their own hearts and reject God's control.
Biblical theology was recently commented on by Richard Smalley, a Nobel
prize winner for nanotechnology. Smalley said in a simple nano
fashion that Christianity works because it is true. Sometimes called
mankind's users' manual, the Bible has been historically shown to
provide input that is complaint with the reality of natural law.
It can assist the heart and mind to function in designed harmony.
That positive manipulation of neurons will enhance a person's ability
to achieve his or hers divine potential. The highest potential
was described by Jesus as coming to love God with all one's heart,
mind, and soul and loving one's neighbor as one's self. Everyone
will experience neuron manipulation but we can use our freewill to choose
truth and have as much peace as is worldly possible or not choose truth
and suffer the consequences.
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RIGHTS RESERVED © 2006 DALLAS F. BELL, JR.--------------
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