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The Number of "Hardware Connections" Affects Intelligence
It's generally true that the more neural "connections"
that are made, the more easily learning and memory may proceed.
And, the less "connections" there are, the more frustrating
learning and memory become. Thus, the correlation between the
number/density of "connections" in a person's brain
and intelligence, is high. Ironically, Attention Deficited persons
are generally those, in the face of increased demand, who have
likely maximized the use of the "connections" they have
developed, some eventually learning to increase the efficiency
of processing to meet the challenge. Hence, many are subsequently
known to be above average in intelligence but it's possible that
they would likely be even smarter if they could be provided the
building material for more connections, allowing them the additional
hardware, and thus the increased capacity to associate information
even more creatively, while reducing the frustrations and anguish
of being imprisoned in a neural system which they have physically
outgrown!
Correcting The Metabolic Dysfunction of The Reticular Activating
System
Fortunately, when appropriate (1) neural building materials, (2)
precursors to neurotransmitters and (3) an appropriate fund of
neural buffers are supplied, neural networks may be created and
forged quickly in order to meet the increasing demands of heavy
neural traffic, especially in the prepubescent individual. In
fact, given the chance, individual neurons can grow at the rate
of 3-5mm per day! And, there are roughly 100 billion neurons in
the brain to be developed, along with a staggering 900 billion
supporting glial ("helper") cells - a grand total of
one trillion (1,000,000,000,000) cells to be nurtured! That's
10 times the number of stars estimated to be in our galaxy!
Neural Building Materials Really Are That Important
One half of the dry weight of the brain (neurons, glial and brain
cells) is made up of fatty acids and lipids. The "hard neural
connections," or synapses, between all these essential areas
of the brain where the coordination of memory and learning take
place, is largely made possible by the structures of fatty acids
and phospholipids alone. And, the physical number of neural connections
then potentiates further production of neurotransmitters and neural
buffers, which in turn, enhance memory processing and learning
even more. If these essential building blocks of the brain's "hardware"
and "software" are not adequately provided for, then
many "connections" will simply not be made or developed.
Considering the above biological facts, we may be able to naturally
combat the symptoms of poor attention by including some key neural
building materials into our diet. These are readily available
in the form of advanced neurally specific dietary supplements
(like Växa'sAttend):
Free Form Amino Acids acting as critical neurotransmitters
and precursors to hormones which stimulate growth throughout the
body, and like GABA and DLPA providing the necessary balance (inhibition
and stimulation) of neural pathways, helping to target, direct
and focus attention.
Safe Trace Elements like Lithium and other micronutritionals
which critically aid in the balance of the major catecholamines
of the brain: Serotonin, Dopa, Norepinephrine.
Phospholipids and Fatty Acids such as Omega-6s
and Omega-3s, AA, DHA, and GLA, provide the essential building
blocks of the neural network and gray matter of the brain.
Catecholamine Precursors (such as naturally-occurring
trans- and cis-chloramide, a natural conjugated form of L-dopa)
to dopamine, acetylcholine and norepinephrine, the three most
important neurotransmitters within the brain.
Natural Hormones like pregnenolone for memory
retention and critically important in establishing neural growth.
Flavanoids like Pycnogenol® which help feed
and strengthen the small capillaries within new neural growth
sites, preventing free radical cascade damage to the expanding
neural network.
Växa's Attend supplies
all of these important nutritional factors, and there are no side
effects, unlike most prescriptive drugs. Because of this bounty
of nutraceuticals, Attend will likely enhance the positive effectiveness
of other pharmaceuticals and can be used conjointly without difficulty
while in transition from less preferred drugs.
As it takes time for new neural growth to be integrated within
existing neural pathways, the effects of Attend generally begin
to be noticed within a few weeks to a few months, depending on
how long the body has been deprived of these essential nutrients.
As your child begins to assimilate these very special nutrients
and new neural pathways can be appropriately nourished, you should
expect to see improved social skills, more self-control, increased
powers of attention, sustained interest and overall, a more happy,
contented, well behaved individual over time.
Children who are exceptionally hyperactive (ADHD) and tend to
throw temper tantrums will find additional support with Växa's
Extress. Additionally, all children who are ADD/ADHD/LD will find
nutritional support from Växa's additional supplement called
Memorin+, which aids in memory retention and makes learning
easier with less frustration. Adults who still suffer from Attention
Difficulties will also be aided by taking Attend
as a daily supplement with Memorin+.
Växa's Support Pac for children
and adults who suffer from distraction and attention difficulties
supplies all three formulas for your convenience.
Common Neural Processing & Behavioral Traits of an Attention
Deficited Individual (ADD/ADHD/LD):
1: Gives up easily on tasks, assignments and self-interests.
2: Poor reality testing skills, and avoidant of reason
or logic.
3: Poorly developed skills of integration, interpolation
and extrapolation.
4: Poor skills of attention and concentration, unable
to sustain focus of interest.
5: Difficulties in short term and long term memory acquisition
and management.
6: Difficulty in making up their mind, or making choices
without undue anxiety.
7: Poor planning abilities, unable to follow through
consistently or complete tasks.
8: Difficulty in differentiating between competing, extraneous
stimulation.
9: Easily distracted from tasks, gives up easily on what
they're working on.
10: Often over-stimulated and over-sensitized to their
surroundings, conversations or social interactions.
11: Poor listening skills, often interrupts others, abruptly
changes topic.
12: Overly excitable, reactive and easily perseverating
from one situation to another.
13: Inability to manage emotional responses, overly responsive
to depressive neural cascade patterns leading to temper tantrums.
14: Easily frustrated, emotional labile/unstable leading
to immediate changeable moods, behavioral inconsistencies.
15: Often hyperactive, fidgety, overwhelmed with feelings
of restlessness.
16: Inability to maintain appropriate social conduct,
often disruptive in school.
17: Experiences difficulty in following instructions
and guidance.
18: Impatient, continuing difficulties in delaying gratification.
19: Overly demanding, may become self-destructive and
aggressive.
20: Poor sleep patterns, often not rested, angry or despondent
upon rising.
Selected
References:
Benson, D.F., The role of frontal dysfunction
in attention deficit hyperactivity disorder, J. Child Neurol.,
6(supp):S9-S12, 1991.
Blackwood, A.L., M.D.; Manual of Materia Medica,
Therapeutics and Pharmacology, Second Edition, Chicago, 1922.
Bradley, P.R., British Herbal Compendium, Volume
1, British Herbal Medicine Association, Biddles Ltd, England,
1992.
Chabot, R.J., Merkin, H., Wood, L.M., Davenport,
T.L., Serfontein, G., Sensitivity and Specificity of QEEG in children
with attention deficit or specific developmental learning disorders,
Clinical Electroencephalography, Vol. 27, No. 1, pg. 26-34, 1996.
Dewey, W.A., M.D.; Practical Homeopathic Therapeutics, Third Edition,
San Francisco, 1934.
Duke, J.A., CRC Handbook of Medicinal Herbs, CRC
Press, Boca Raton, 1989.
Dyme, I.Z., Sahakian, B.J., Golinko, B.E., Perseveration
induced by methylphenidate (Ritalin®) in children. A research
note. J. Child Psychol. Psychiatry, 28, 897-902, 1989.
Gray, R., Rajan, A.S., Radcliffe, K.A., Yakehiro,
M., Dani, J.A., Hippocampal synaptic transmission enhanced by
low concentrations of nicotine, Nature, Vol 383, 713-716, October,
1996.
Gur, R.C., Packer, I.K., Hungerbuhler, J.P., et
al, Differences in the distribution of gray and white matter in
human cerebral hemispheres, Science, 207:1226-1228, 1980.
Flood, J.F., Morley, J.E., Roberts, E., Pregnenolone
sulfate enhances post-training memory processes when injected
in very low doses into limbic system structures: the amygdala
is by far the most sensitive, Proceeds of the National Academy
of Science, USA, 92 (23) Pg 10806-10, Nov 1995.
Lehninger, A.L.; Biochemistry, Worth Publishers,
Inc., 70 Fifth Avenue, New York, N.Y., July 1972.
Malone, M.A., Kershner, J.R., Swanson, J.M., Hemispheric
processing and Methylphenidate (Ritalin®) effects in attention-deficit
hyperactivity disorder, Journal of Child Neurology, Vol. 9, No.
2, pg 181-189, April 1994.
McGehee, D.S., and Role, L.W., Memories of Nicotine,
Nature, Vol 383, 670-671, October, 1996.
Mesulam, M.A., Large-scale neurocognitive networks
and distributed processing for attention, language, and memory,
Annals of Neurology, 28: 597-613, 1990.
Mowrey, D.B., The Scientific Validation of Herbal
Medicine, Keats Publishing, Inc, New Canaan, Connecticut, 1986.
Petersorf, R., et al. (eds); Harrisons' Principles of Internal
Medicine, McGraw-Hill, New York, N.Y., 1983.
Reckeweg, H.H., M.D.; Materia Medica Homeopathica
Anthomotoxica: Volume 1, Baden-Baden (translation of third German
Edition of 1983).
Robbins, S.L., et al; Pathological Basis of Disease,
W.B. Sanders, Philadelphia, PA, 1984.
Sokol, M.S., Campbell, M., Goldstein, M., Keiechman,
A.M., Attention deficit disorder with hyperactivity and the dopamine
hypothesis: Case presentations with theorectical background. J.
Am. Acad. Adolesc. Psychiartry, 28, 897-902, 1988.
Solanto, M.V., Wendel, E.H., Does methylphenidate
(Ritalin®) constrict cognitive functioning? J.
Am. Acad. Child Adolesc Psychiatry, 28:897-902, 1989.
Suffin, S., and Emory, W.H., Neurometric subgroups
in attentional and affective disorders and their association with
pharmacotherapeutic outcome, Clinical Electroencephalography,
Vol. 26, No.21, pg. 76-83, 1995.
Tucker, D.M., Developing emotions and cortical
networks, in Gunnar, M., Nelson, C. (eds), Minnesota Symposium
on Child Psychology, Vol 24: Developmental Behavioral Neuroscience,
Lawrence Erlbaum (Publishers), Hillsdale, N.J., 1991.
Voeller, K.S., Alexander, A., Hellman, K.M., Defective
response inhibition in attention deficit hyperactivity disorder,
Neurology, 40(supp):1:410, 1990.
Peiper, H. and Hoffman, R.L., "ADD: The Natural
Approach," Natural Foods Merchandiser, Sept 97.
Kolata, G., "Ethical questions spring up
as use of Ritalin mushrooms," San Diego Union Tribune, May
18, 1996.
Machan, D., "An Agreeable Affliction,"
Forbes, August 12, 1996.
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