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<p lang="en-US" align="left" style="margin-left: 1.27cm; margin-right: 2.54cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt"><font color="#ff0000"><font face="Verdana, sans-serif"><b>5<img src="data:image/png;base64,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" name="TtsOtkCRS05_01" align="right" hspace="5" width="150" height="50" border="0">.
Telesensory animals. </b></font></font>Telesensory animals are
multicellular animals with a centralized nervous system in which the
three basic subfunctions of the animal behavior guidance system are
served by entire systems of neurons. They include most invertebrates
along with non-mammalian vertebrates, and after explaining why the
basic structure of the invertebrate nervous system limits their
subsequent evolution, this chapter describes the structure of the
vertebrate brain in detail and traces the actual evolution of
vertebrates on earth. But in order to deduce this stage of evolution,
it must first be shown to be inevitable. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 1.27cm; margin-right: 2.54cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt"><font color="#993366"><font face="Verdana, sans-serif"><b>I<img src="data:image/png;base64,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" name="TtsOtkCRS05_02" align="right" hspace="5" width="275" height="30" border="0">nevitability
of telesensory animals. </b></font></font>According to this
ontological explanation of evolution as a global regularity, the
evolution of multicellular animals with nervous systems at the
telesensory level of part-whole complexity is inevitable, if it is
both possible and functional. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 1.27cm; margin-right: 2.54cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt"><font face="Verdana, sans-serif">P<img src="data:image/png;base64,iVBORw0KGgoAAAANSUhEUgAAAEUAAAAPCAMAAACFkPIRAAAAYFBMVEXjx5vVu5HHroi4on6qlXSciWqOfGF/cFdxY01jV0MybUFVSjpGPjA4MSYqJR0NDAkAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAADPN+G7AAAAuElEQVR4nK2T6wrDIAyFjzHGSI3b+z/tjt2g9MfWwjwKCUQ+c1E8VwirKPhXSynirueASjYaUTQY8i2KbrqVU0CSOk0SBBlxj+LcOcLQIrLRcdXRx0QFIj/CIoH7NyV8SBcMDCbfmRYpjlLflJmLmWzXFaV5NJjSKOLhO0X9oGC0r905KuL1XgJNvdZSOildI38ovWS0ftUX2SdkNaE4J+I1qQh7MwPGJXTNrih39GNOC1/dmn+0QC+3rhjemIjdOQAAAABJRU5ErkJggg==" name="TtsOtkCRS05_03" align="right" hspace="5" width="150" height="25" border="0">ossibility.</font>
To be possible, the telesensory level of neurological organization
must fall within the range of random variations being tried out in
the evolution of somatosensory animals. And it is clearly possible,
because somatosensory animals already have already evolved the
mechanism of embryological development to serve as their biological
behavior guidance system, and they have already evolved neurons for
transmitting and regulating the signals from sensory input that
caused behavioral output. Thus, all that was required for telesensory
animals to evolve was a higher level of part-whole complexity in the
organization of the nervous system, that is, a centralized nervous
system in which neurons are organized into systems that can serve the
basic subfunctions of an animal behavior guidance system with an
animal system of representation. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">Neurons
generating motor output must be parts of a single system, in order
for animal behavior to include locomotion in relation to objects at a
distance. But since local reflexes in somatosensory animals could
already recruit one another to generate whole body behavior, control
of locomotor behavior could be supplied by neurons that controlled
all the local reflexes. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">However,
in order to guide locomotion relative to distant objects, sensory
organism must be able to detect objects located at a distance from
the body, and since that means using proximal input to extract
information about distant objects, neurons must be organized on a
higher level of part-whole complexity in space. There are only
certain kinds of effects on the animals body that can be used:
electromagnetic radiation, vibrations in the medium or substratum,
and kinds of molecules encountered. But since somatosensory animals
have already evolved neurons that respond to such effects, it is just
a matter of organizing them into systems of neurons whose joint
output depends on the distant objects causing the proximal input. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 3.81cm; margin-right: 2.03cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif">In the case
of vision, for example, photo-sensitive neurons must be arranged in a
two dimensional array (2 .D array). Not many such neurons are
required for the compound eyes of insects, but in camera-like eyes.
extremely large 2 .D arrays of neurons are required to register
images focused on them by a lens. Hearing requires only neurons that
are sensitive to mechanical disturbances, but to discriminate the
direction and tone of the sound, they must compare the disturbances
of many neurons at once. (Hearing evolve in vertebrates from the
lateral line in fishes, which is basically a series of sensors of
mechanical disturbances along the side of the body.) Though
somatosensory animals already have cells sensitive to kinds of
molecules (taste receptors) by which they choose which objects to
ingest, olfaction requires a large variety of neurons testing many
different aspects of the shapes of molecules at the same time. In
each case, multiple neurons are organized as a whole system, and the
effects of its geometrical structure are as important to the function
of the telesensory organ as the kind of neuron of which it is
composed. </font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">These
systems of neurons had to be organized as parts of centralized
nervous system in order to use telesensory input to guide locomotion
(and to select the appropriate kind of behavior as an animal behavior
guidance system). And as we have seen, in order to construct an
animal representation for guiding behavior in relations to distant
objects, brain mechanisms must connect input from telesensory organs
with input from their bodily condition, such as the orientation of
the body and head and its locomotion. But since the mechanism of
embryological development had evolved to construct structures of
eukaryotic cells, there is no reason to doubt that the telesensory
nervous system is possible. </font></font></font>
</p>
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" name="TeleAbgs" align="bottom" width="458" height="324" border="0"></font></p>
<p lang="en-US" align="left" style="margin-left: 1.27cm; margin-right: 2.54cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt"><font face="Verdana, sans-serif">F<img src="data:image/png;base64,iVBORw0KGgoAAAANSUhEUgAAAEUAAAAPCAMAAACFkPIRAAAAYFBMVEXjx5vVu5HHroi4on6qlXSciWqOfGF/cFdxY01jV0MybUFVSjpGPjA4MSYqJR0cGBMNDAkAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAD2Ty12AAAAyklEQVR4nK2TgW7DMAhEMZwJEcbd/v9nB102LVtaaapPjoXO+AmMQu8rRKso9KqWUtjMcD5pTPzLIlFSkocUOMDnE1iB/nhC8ZhiGUctG+EkM9xvke4eo2GOaDQrMgp9CwS1uKLcIg5Kz82Z6gZMnHTDTtkub4GiVJqz6vNa8JlId8rXZuDZ/Zsifm7rJ2WoHRTbscnosDYxcKfIwFHLzBcMu5xRTaMZlDIli1WT/NLl6gXl9q1zRplhXC1fUP4p9ssZvaiF/9ECfQAExxsfPNSjfgAAAABJRU5ErkJggg==" name="TtsOtkCRS05_04" align="right" hspace="5" width="150" height="25" border="0">unctionality.</font>
To be functional and begin another stage of evolution, however, such
a higher level of neurological organization had to enable telesensory
animals to control an entire range of relevant conditions that were
out of reach for animals at previous stages. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">Though
it is clear that the ability to use telesensory input would make them
more powerful than somatosensory animals, it may not be clear that
this power was out of reach for all previous animals, because animals
at lower biological levels move about and have mechanisms to guide
their locomotion. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 3.81cm; margin-right: 2.03cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif">Magnetosomes
in bacteria, for example, tell which direction to move in order avoid
the toxic effects of oxygen-rich water near the surface. And
animal-like protists, such Paramecia, have eye spots by which they
can orient their motion relative to light. </font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 3.81cm; margin-right: 2.03cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif">However,
even if this is the capacity to guide locomotion relative to distant
objects, it would make telesensory animals inherently more powerful,
because they would be guiding the locomotion of a multicellular
animal, which is already inherently more powerful than single-celled
animals. </font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 3.81cm; margin-right: 2.03cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif">In any
case, these structures in animal-like protists are not telesensory
organs, much less an animal systems of representation, because they
do not detect <i>objects </i>at a distance in space. They merely
orient locomotion in some ambient field. In these animals, locomotion
is just a response to light built into the organisms structure by
the biological behavior guidance system, like reflexes in
somatosensory animals. </font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 1.27cm; margin-right: 2.54cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">Since
telesensory animals are both possible and functional, this
ontological explanation of revolutionary evolution implies that their
evolution is inevitable. Telesensory animals would evolve on any
planet in a spatiomaterial world like ours where stages of evolution
could unfold at all. But since they begin another stage of evolution,
reproductive causation also implies that their basic power to guide
locomotion in relation to distant objects would evolve in ways that
enable them to control additional conditions affecting reproduction.
This prediction is confirmed by the main accomplishment of this
animal stage of evolution, namely, the evolution of nervous systems
with the capacity to <i>map </i>the relations of salient objects in
their territory. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt"><i><b>Maps.
</b></i>Telesensory animals would be even more powerful, if besides
guiding locomotion in relation to objects currently being detected
objects at a distance, their animal representations enabled them to
guide locomotion in relation to currently undetected objects. Since
telesensory nervous systems must already be able to generate more or
less complex instinctive behavioral routines in relation to objects
in space in order to generate the various kinds of behavior needed to
control relevant conditions, only relatively modest modifications of
their neurological mechanisms are needed to represent the locations
of unperceived objects.</font></font></font></p>
<p lang="en-US" align="left" style="margin-left: 3.81cm; margin-right: 2.03cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif">For
example, the capacity to keep track of how far the animal moves in
each direction relative to the sun or magnetic north would enable it
to return to a nest by &quot;dead reckoning&quot; (so that once it is
in the vicinity of its nest it could guide its locomotion relative to
objects recognized from current telesensory input). Gallistel (1990)
has marshaled abundant evidence of such mechanisms in telesensory
animals. Desert ants, for example, find their way back to their hive
by keeping track of how far they go in any direction relative to the
sun or wind. Only when they get in what should be the vicinity of
their hive do they orient their locomotion by telesensory input from
objects in space. (Gallistel 1990, pp. 59-65.)</font></font></p>
<p lang="en-US" align="left" style="margin-left: 3.81cm; margin-right: 2.03cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif">The use of
large-scale maps by social insects like honey bees is undeniable.
Returning foragers direct other members to energy sources by
performing a figure-eight dance in relation to the azimuth of the sun
that successfully communicates both the direction and distance to
other bees. Gallistel shows how these feats could be explained rather
simply, assuming that neural mechanisms can represent distances and
directions of locomotion and perform quantitative computations on
them. </font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 3.81cm; margin-right: 2.03cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif">Such
telesensory level animal systems of representation are capable of
rather sophisticated navigational feats. When honey bees, for
example, are released in a region with a known bearing and distance
from their hive, not only can they return to their hive, but they can
also fly directly to another, unseen energy source with a different
bearing and distance from their hive when they have recently been
feeding on it and that is the only way to obtain energy (Gallistel
1990, pp. 131-140). </font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 1.27cm; margin-right: 2.54cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">Such
territorial maps suggest how much power can evolve in telesensory
animals because their animal behavior guidance system contains a
system of representation. But to call a mechanism a system of
“representation” is to say that there is a <i>correspondence
</i>between its representations and what they represent, and it is
relevant to consider how such a correspondence is constituted by the
animal system of representation, because it is the beginning of an
explanation of the nature of truth that will hold of rational beings
like us as well. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">In
the case of the simplest animal systems of representation, the
correspondence is basically geometrical. Spatial aspects of behavior
are adapted to spatial aspects of the world so that the behavior
imposes a geometrical structure on the thermodynamic flow in the
region, and what makes that possible is an implicit correspondence
between the representation of the object in the animal system of
representation and spatial aspects of the world. The representation
of the object in the sensory input system has a geometrical structure
that corresponds to the relations of objects in space because of how
sensory input is recorded together with input from the current bodily
condition.</font></font></font></p>
<p lang="en-US" align="left" style="margin-left: 3.81cm; margin-right: 2.03cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif">Telesensory
organs, like the eye, provide information about the locations and
kinds of objects, not only because of the interaction between the
eyes geometrical structure and other objects in space (by way of
photons), but also because that telesensory input is contingent on
the direction in which the eye is pointing and the head is oriented.
<i>Telesensory input </i>is registered in a way that reflects the
<i>bodily condition</i> at the time, and since the animal
representation can trigger behavioral dispositions that will approach
or avoid objects at a distance, it can be used to guide locomotion in
relation to them.</font></font></p>
<p lang="en-US" align="left" style="margin-left: 3.81cm; margin-right: 2.03cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif">The
basically geometrical nature of the correspondence between the animal
representation and the locations of objects relative to the body
solves a problem that functionalist explanations encounter when they
try to explain correspondence with nothing but causal connections
between input and output within the organism. The correspondence is
not just a constant conjunction between telesensory input and the
object in space that is involved in reference, as Fodor seems to mean
by calling it a “casual connection,” but an isomorphism between a
structure in the brain and the geometrical structures about the
locations of objects in the space around the telesensory animal. (See
<font face="Arial, sans-serif">Epistemological philosophy of
causation</font><font face="Verdana, sans-serif">: Rational
causation: Psychology: Naturalism.</font>)</font></font></p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">In
the case of maps of the spatial relations of unperceived objects in
the territory, the correspondence depends on a more complex
geometrical structure than is required to represent the locations of
currently detected objects in space, because it involves two phases. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 3.81cm; margin-right: 2.03cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif">First,
since the animal representation of the object functions as a map,
telesensory input must be registered in a way that reflects how far
the animal must go in certain directions relative to the sun or
magnetic north to get from one recognizable location to another.
(This is a form of inquisitive behavior.) </font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 3.81cm; margin-right: 2.03cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif">Once the
map has been constructed, the animal can, during the second stage,
use the isomorphism between those brain states and salient objects in
the territory to guide its behavior in relation to undetected objects
in space. </font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">The
construction and use of maps are two different structural global
regularities generated by the structure of the nervous system. During
the map-making phase, the nervous system acquires an additional
geometrical structure from the world, and during the second phase, it
uses that unchanging geometrical structure to guide its behavior. The
world itself is, therefore, partly the source of the structural cause
by which animal behavior imposes a geometrical structure on the
thermo&shy;dynamics flow of matter in the region toward evenly
distributed heat. The use of its map enables the animal to anticipate
what will happen as it moves in various directions so that it can
choose among them according to the kind of behavior that would
control relevant conditions. This geometrical fit of its behavior
with the environment would be quite mysterious, except for the
structural causes involved, including the first phase of map-making
behavior that sets up the correspondence involved in representing the
locations of salient objects in its territory.</font></font></font></p>
<p lang="en-US" align="left" style="margin-left: 1.27cm; margin-right: 2.54cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt"><font color="#993366"><font face="Verdana, sans-serif"><b>T<img src="data:image/png;base64,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" name="TtsOtkCRS05_05" align="right" hspace="5" width="275" height="30" border="0">he
Inferiority of Invertebrates. </b></font></font>The evolution of
telesensory animals in the direction of natural perfection for
organisms of their kind is necessary for the evolution of subjective
animals, but it is not sufficient. The telesensory stage must make it
possible for the mechanism of embryological development (the
biological behavior guidance system for multicellular animals) to try
out, as a random variation, the higher level of neurological
organization required for locomotor imagination. Its possibility is
clearly not a foregone conclusion. Indeed, it happened in only one
kind of telesensory animal, the vertebrates. It did not happen in
invertebrate animals. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">It
is because vertebrates seem so basically different from other animals
that all the other animals are usually classified together as
&quot;invertebrates&quot;. It has long seemed that vertebrates have a
greater capacity for evolution. They generally have larger and more
powerful bodies, not only those that live in water, but also those on
land and in the air. The closest invertebrates come to approximating
the vertebrate animal system of representation are the octopus and
squid, which have evolved the same kind of camera-type eyes (focusing
images on a retina) that vertebrates of all kinds have.</font></font></font></p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">However,
many kinds of invertebrates, including insects, many mollusks, and
even worms, are in the same category of natural kinds as sharks,
fishes, amphibians, reptiles, birds and even dinosaurs. All are
<i>telesensory </i>animals, with centralized nervous systems and the
capacity to guide behavior in relation to objects at a distance. And
map-making powers evolve in both classes of animals. Though the
examples mentioned above are invertebrates, similar map-making
capacities have been demonstrated in telesensory chordates, such as
fish, reptiles and birds (Gallistel 1990, Chapters 4 and 5).</font></font></font></p>
<p lang="en-US" align="left" style="margin-left: 3.81cm; margin-right: 2.03cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif">There is a
similar difference between two classes of somatosensory animals, even
those whose radial bodies indicate their adaptation at this level.
There are simple somatosensory animals, which include the hydra,
jellyfish, sea anemones and corals (coelenterates) and their somewhat
more complex cousins, the comb jellies (ctenophora). But there is
another kind of radially symmetrical animal that is far more complex,
the echinoderms, including sea stars (&quot;starfish&quot;) and sea
urchins. The difference in their complexity does not come from their
stage of evolution, since they are both kinds of somatosensory
animals. (But it is explained, as we shall see, in the same way as
the difference among telesensory animals.) </font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">The
difference in the fates of these two classes of animals poses a
challenge to this ontological explanation of revolutionary evolution.
If evolution is really a dialectic of gradual and revolutionary
change in which stages of evolution follow one another in time, then
why did the next stage not happen to any invertebrates species? Thus,
let us consider what makes vertebrates so different from
invertebrates before we show how the vertebrate nervous systems
evolves a higher level of neurological organization. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 1.27cm; margin-right: 2.54cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">The
answer to this puzzle is found in their patterns of embryological
development. There are basically two different ways that
multicellular animals develop, and it has long been recognized as a
basic difference among them. Once class has so-called “proterostome”
development, whereas the other has “deuterostome” development.
Deuterostome embryological development in vertebrates and how it
differs from proterostome development will explain what makes it
possible them to try out higher levels of neurological organization.
The origin of this difference was explained<font face="Arial, sans-serif">,
</font>along with a more detailed description of the difference
between proterostome and deuterostome nervous systems, in <font face="Arial, sans-serif">Stage
4: Origin of the mechanism of embryological development</font>. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">Since
every cell in a (sexually reproducing) multicellular animal derives
from the same fertilized egg cell and has the same genetic structure,
the basic challenge in constructing a complex body or nervous system
is to make the cells become different in their behavior and yet
coordinate them so that they work together as a whole. This challenge
has been met by a process called embryological development, which
began with the original multicellular animals of this kind and became
increasingly elaborate through evolution. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 3.81cm; margin-right: 2.03cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif">Sexual
reproduction requires, as we have seen, that the whole body of the
multicellular animal be constructed from a single fertilized egg
cell, and this mechanism coordinates the lower level organisms of
which multicellular animals are composed. This is a function of what
is classified here as the &quot;multicellular biological behavior
guidance system.&quot;<font face="Verdana, sans-serif"> </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 3.81cm; margin-right: 2.03cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif">The advent
of that important mechanism is responsible for the Cambrian
revolution, which marks the very beginning of the fossil record some
600 million years ago. That is when the fossils of many different
species of multicellular animals suddenly showed up, and since
fossils form only when multicellular animals evolved hard parts, like
shells, it indicates roughly when the mechanism of embryological
development first evolved. That is the mechanism that constructs the
nervous system.</font></font></p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">Cells
are first determined to become different kinds by the part of the
cytoplasm (or cortex) of the fertilized egg that they inherit from
the initial divisions of the egg cell. But animals need complex
bodies in order to act on other objects in space, and that requires a
developmental process in which some cells (and groups of cells) move
past other groups of cells that remain attached to one another. What
made it possible for animals to have a form of embryological
development that is so different from plants is the animal-like
behavior of the protists from which animals evolved (presumably,
amoebas), including locomotion. Except in the simplest animals,
development involves a process of gastrulation, and early in that
process, a major difference shows up among multicellular animals,
indicating an early branching in the evolution of their kinds. It
separates vertebrates from most kinds of invertebrates, and it
explains why vertebrates are able to evolve higher levels of
neurological development, beyond telesensory animals, whereas
invertebrates cannot. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 1.27cm; margin-right: 2.54cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">The
major division among animals is the difference between proterostomes
and deuterostomes. Most invertebrates are proterostomes, but
vertebrates are deuterostomes. A brief sketch of the difference about
the basic frameworks in which their nervous systems are laid out will
make it clear why higher levels of neurological organization occur
only in vertebrates. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">In
proterostomes, the basic structure produced by gastrulation is a
single tube formed of two layers of cells (ectoderm and endoderm)
stretching between the mouth and anus. There are apparently gradients
of messenger proteins established in the tube as a whole, uniquely
identifying every location in it. Although the mechanism has not yet
been fully explained, the multicellular behavior guidance system can
apparently address cells by their locations in this gradient, make
them open up different segments of their chromosomes so they behave
differently, and thereby enable them to move past other cells to
other locations in the body which are also identified by this
gradient. In proterostomes, this is the source of the structure of
both the nervous system and most of the structure of the body.
Neurons always develop only from the outer layer of cells in the tube
(ectoderm). Cells located in certain parts of the two-layered tube
are determined to become ganglia, which are clusters of neurons that
set up their own gradients of messenger molecules among themselves.
And the multicellular behavior guidance system can also use these new
gradients, within the ganglia that form, to address cells
individually and make them send axons to connect with certain other
neurons in the same ganglion or to certain neurons in other ganglia
located elsewhere in the body.</font></font></font></p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">In
deuterostomes, gastrulation is able to produce a basically different
structure of gradients for the multicellular behavior guidance system
to use in determining cells, although not all deuterostomes exploit
this capacity. There is at least a 2-D gradient in the tube extending
from mouth to anus identifying the locations of cells (with cells
also orienting themselves orthagonally to the surface of the tube),
and there is an additional body-length tube, the neural tube, with a
similar 2 .D gradient of its own, which becomes the spinal chord and
brain in vertebrates. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 3.81cm; margin-right: 2.03cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif">The neural
tube is formed from a body-long strip of the outer layer of cells (or
ectoderm) of the body-tube (or gastrula) which folds over and sinks
beneath the outer layer of cells. Although neurons still develop only
from the ectoderm, the ectoderm used in deuterostomes is the neural
tube, and its separation from the rest of the body enables the
multicellular behavior guidance system to use the 2-D gradients in
the neural tube to address neurons separately from the cells that
become other parts of the body. </font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 3.81cm; margin-right: 2.03cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif">Furthermore,
during the process of gastrulation in which the neural tube is
formed, both the body and the neural tube are segmented, so that
there is actually a <i>series </i>of 2 .D gradients (including a
difference between right and left sides of the body) running along
the length of both the body and the neural tube. Thus, not only are
all the cells of the behavior guidance system already separated from
the rest of the body in a tube with their own 2 .D gradient, but that
all .inclusive 2 .D gradient is also subdivided regularly into
smaller 2 .D gradients. The animals that take advantage of
deuterostome development to construct a nervous system in this way
are all called &quot;chordates&quot;.</font></font></p>
<p lang="en-US" align="left" style="margin-left: 1.27cm; margin-right: 2.54cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">Since
the challenge to the mechanism of embryological development is to
coordinate the behavior of lower level organisms, it is clearly an
advantage to have a segmented neural tube in which to construct and
operate the animal behavior guidance system separate from the rest of
the body. Indeed, there is a useful analogy to the biological
behavior guidance system. Chordates seem to have a higher level of
organization than proterostomes in a way that resembles how
eukaryotes differ from prokaryotes, although chordate and
proterostome nervous systems are actually on the same level of
part-whole complexity. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">The
prokaryote and eukaryote biological behavior guidance systems both
coordinates the behavior of segments of DNA (or genes) in much the
same way as the multicellular animal behavior guidance system
coordinates the behavior of neurons in both proterostomes and
chordates. The lower level organisms are coordinated by being parts
of the structure of the organism as a whole. But prokaryotes are to
eukaryotes as proterostomes are to chordates.</font></font></font></p>
<p lang="en-US" align="left" style="margin-left: 3.81cm; margin-right: 2.03cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif">In
prokaryotes, a loop of DNA, containing all the genes, is located
alongside all the other molecules in the cell, whereas in eukaryotes,
multiple chromosomes are kept separately in a nucleus, where the
expression of all their genes can be coordinated without interference
from the mechanisms generating the behavior of the cell as a whole. </font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 3.81cm; margin-right: 2.03cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif">Likewise,
in the case of nervous systems. In proterostomes, neurons are
determined to become ganglia from the body's 2 .D gradient alongside
all the other organs of the body, whereas in chordates, the only
cells that become neurons come from the 2 .D gradients of a segmented
neural tube, so that the coordination of cells in setting up the
nervous system is not disrupted by the coordination of cells in
setting up in the body. </font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 3.81cm; margin-right: 2.03cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif">In both
eukaryotic cells and chordates, there is a spatially distinct organ
for controlling the simplest units involved in guiding behavior. It
is important to recognize, however, that deuterostome development
does not put chordates on a higher level of part-whole complexity
than proterostomes. It does not make much sense to talk about levels
of part-whole complexity when there are only two levels.</font></font></p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">There
is, moreover, a further advantage in separating the animal behavior
guidance system in the neural tube from the rest of the body. In
proterostomes, where there is no such separation, another set of
gradients has to be set up in each ganglion to coordinate its neurons
after the ganglion has been determined from the ectoderm. In
chordates, by contrast, this step has already been accomplished
before neurons are determined, because cells in the neural tube
already contain labels indicating their relative locations in the
local 2 .D gradient of each segment of neural tube as well as their
segment relative to other segments in the neural tube as a whole. The
chordate multicellular behavior guidance system can, therefore,
address whole 2 .D arrays of cells in a segment at once and tell
(some of) them (from each local area) to migrate to, or to send axons
to, another 2 .D array in the neural tube, while keeping their
relative positions in their own 2 .D structure and finding their
counterparts in the target array. That is, chordates have 2 .D arrays
located in a more inclusive 2 .D array. Thus, it is as if the units
supplied by gastrulation for use in neural development were not just
single neurons, but also whole 2 .D arrays of neurons. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 3.81cm; margin-right: 2.03cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif">This
difference would explain why only vertebrates are able to try out yet
higher levels of neurological organization,<b> </b>and we shall see
why such connections among whole 2 .D arrays of neurons are essential
to the mechanisms of the subjective animal system of representation
that gives mammals a locomotor imagination. It will not be known
precisely how the segmented neural tube gives vertebrates such an
advantage until the mechanisms of the multicellular biological
behavior guidance system are explained, but that is not essential to
this argument, for it depends only on recognizing a basic difference
between the biological behavior guidance systems of proterostomes and
deuterostomes in how they coordinate the behavior of cells in setting
up the structure of the nervous system. </font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 1.27cm; margin-right: 2.54cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">The
difference between a nervous system enclosed in a separate unit and
one spread throughout the body is intuitively clear, and there are
many reasons for believing that this accounts for the failure of
invertebrates to evolve higher levels of neurological organization
are not hard to find. Here are three (which are explained in more
detail in <font face="Arial, sans-serif">Stage 4: Multicellular
organisms: Evolution of embryological development)</font>. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">First,
it is clear that the gradients in the body of invertebrates could
interfere with the structure of the nervous system, because, despite
the obvious advantage to telesensory animals of having a nervous
system centralized in the head for guiding locomotion, not a single
proterostome has managed to disentangle its nervous system from the
mouth itself. At the head of every telesensory proterostome, there
are always two pairs of ganglia whose connections encircle the mouth.
This reflects the gradients set up in the body by proterostome
development, in which the mouth is the opening in the sphere created
by gastrulation. Proterostome development is simpler than
deuterostome, but it compromises the unity of the centralized nervous
system.</font></font></font></p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">Second,
although proterostomes do develop segmentation in their bodily
structures (in segmented worms and insects), it does not give the
nervous system a larger 2 .D gradient in which smaller 2 .D gradients
are embedded for use in connecting 2-D arrays at different locations
with one another, because it is the body as a whole that is
segmented. The body is, in effect, a series of simpler, proterostome
bodies. Ganglia can be set up in each segment, but they still have to
set up their own internal 2 .D gradients. Hence, they are independent
of one another and not coordinated with one another by being embedded
in a larger 2 .D gradient. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 3.81cm; margin-right: 2.03cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif">Unlike the
deuterostome development of chordates, where the process of
gastrulation segments both the body and the neural plate (which
becomes neural tube), the segments in proterostomes are set up by the
duplication of special mesodermal cells, which give rise to coeloms
that divide the basic tube-like structure of their bodies. </font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">Third,
the evolution of a camera-type eyes in the squid and the octopus
shows that the difference between invertebrates and vertebrates
cannot be explained by any lack of ability to evolve the right kinds
of cells. But the difference in their wiring does show the advantage
of having 2 .D arrays built into the gradients of the neural tube. In
vertebrates, the retina of the eye develops from a section of the
neural tube that migrates as a whole to the ectoderm (where they
determine cells located there to become a lens and an eyeball
surrounding it). So their axons, with millions of them in a bundle,
are able to keep their spatial relations to one another as they
project back to the neural tube and superimpose themselves in an
orderly way on the 2 .D arrays of their targets. But in order for the
octopus, as an invertebrate, to operate a camera-type eye, the
complex 2 .D array of cells must be constructed from the neurons in
ganglia, and whatever is going on, a glance at the basket-weave
structure of its optic nerve makes clear that it takes a good part of
the multicellular biological behavior guidance system's capacity for
determining cells simply to keep them straight as they project to
their targets. Not surprisingly, it is not easy to combine many such
neural mechanisms as parts of a larger neural mechanism. (See
Diagram.)</font></font></font></p>
<p lang="en-US" align="left" style="margin-left: 3.81cm; margin-right: 2.03cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
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sCfCmU1isIqzwYkNLAFpnf8DLedSmhzHSex+X5Ggd7zoX/7+rYA+j+WLzYDmVTNO5a0zAQjmzZpREWpNAdYA84VwRjW+Y/0wG1NrBiAwmhMMJQee/axM/CCd1FmgVbAzuyxwk1xRGIqKYWRCXlwuqBQCo4AfuQVKKkrqdcE7hr2GYdhmsHBgoCYhLES4fubDsRfub4rgP4PJm+DgBWB9i9OFFsTS+xgJAv2uMNeBK70APnbcgt0C4NtzD/3PsGoBmDKkJnpoKx7rFFIynwZaUB9gECDFauHsASLqa00qZWBGmvrMXFyxmAgp8JObKcAIN0DHQs9UHjzcCIg/TSd9YvXdwUw/wmP4HmpE+jxvcas2Pq0uNAPfpOALR5La2wzsA6/WYDNZ59azbFG75juBg2EbR+x2aO00SJdGACjOBdacx+iCXQOJwQkGFxhVwmzOsv/2WvZBepKMzHV3P3G9eXxiqchBgCGADaLCgyQiD8kgc8F0EMG85+FDtpe4z+WJkNfJ8kUgCHYJmiYs+0nOAap+C1KD0CKbRHRthwQDWelZaAgCR14vuPgYJvSzwN9stEpAUIAYgslE310DCtsITNYAFvCnImpYTAvj9Qrd/w+va2OAjBYFI7clJ1sALIAhbDPh7HGN/4IIftcAGCCAciktbhLaH/q5L2+Sib3USh/1+KIs25cCTofOnRx6ayImeIMoY+zCHLLYauMgbngACI7lHyAzilzenU4M2BdIAqKfR59yYFyy25IZjZ0VmJQ7K1oGVr4AMEqw9yk8wQsd/ehdQifHEBwPGu8/4xj7nMBlLpn7D4ccYF1+qInZBB7+Ej0Lvql++y5EINgz84N25K505u5pDcnth+nr1qCszcrVyq6d83nrdZYpbEMD4sN0lu9QJsVYEwcEl/L5qsEHCnv8RcMBqw9NDpNwUx9t8zUpAXqKqSquXLl4/k57vCVQ1sx77dsq76Hp+ZPGOLPBeD7CIARtTMXs31JAwF5G0uKwfAJt+ZnvzIBTvjkUNJpU2ZiecD1SXPoG9VAT75DJvbMhxsUSoHF10ydaHshEYC1db03H7Xx3UaEKBOORais3gjMg3ahwtqnAH7Nvh4q+2g4WR28rJvGwYup+MKKyxcA3TNgx/hbi2VbwTOdf8QQfyoA4rq2p4yDF2rDxhifWeHKtklCkon1Y7ZNZJ+eMj48CLpJ5t4MrFUB2cqD6wu76OhvUGZr1paW13qGIxfUVxBjzezUFEUa8KoqwEwuRcbEWQAsbbO2DDk0YCG8WeBhEaDJDhhV8mDEB+onRsZviiPutGibOrobJswGNFU8w/GN3Q4mYep6mOp+P2vxUwGUQMd4Z+FaC1Cws3zMQTS5pC9lBOPNYvUPRJcITapEJh/iFLRuHp55pD3MziTdeASP66GAQiCiTC1jlcATZqlQ80z7bID7TEgZHuA/Ut/knB0bC+Fg+ACgWiPIVScCldYm7LiAZHjhMauRp2ydtbQF1w4fBC/6otRtV/AivIqlfvv6TADzsDnHH/OTjGYs1D134B5lAeoI8p4Iho9QMmVGpm46yUwQ2bgJqXhTxMpSka1kLLmiMLASle4gBUbtKanUCSnBLECMkVbZAZ/6Du6bowvR4R+DTr0MlCSjDWCnqhM8DcLfQDY8uALUJ+0MWOBOG8C0iLOOe7czACniGMhx27+dLfSZAHT7jp4b4Xi5Ap7nXLK10Ljei3WLb/9ixrkCCdtjAdQEXiEh3Ug5CtE+fgLdwbYDfO3ZhcNE4Nl6YEZmuIGmOQaFYQlEQZuCi8xpx3mIDYotAkZozCH1Vp2y30fA50CngBOD5Dm12iSBjjX1H+mM4PmDSoQc+rHz8B2h9jqeo72TVfb161MVdO7Z+QUC1sMqgKzWlAfrn5kxEkCEzlIu/PMtUDRIeZNWZWb5vlVsSR+w3zvkEBTaHNyWvR342rrdrsrqga6zASbjBLBXDQwFvtFHtIzcgHewDjUtRLzaGXlj6KUL2EbjmRn0a/OMuQJe3CE5fo4yACNbq921ChoCSmhnu2ygFvUKH+Xw+bJ8eH2ZCevnAHSs5DGBEr4s7hzS6IFPR0OeDrX6etPggdKeB0A7sGjDanQ1AF4GlqYqy31hO7dVO7c9X1oyYy4AQVhaVZZgFEbIWDGAt2PzRAkJcHQDApK44f5yDh1UAfvDF6UbyDkWqOLHpWZhvJjapVAAMUAAGxRha61HworIRPgrTW7G38SiX3dFxHdS8+ap6qelbg6Ya4Mq5mqf62fA3NjQq0VBCy6/EAEwx44TILAB0XLS98nDn0YdW6RjmUggLwtQbmtP9hUK4K531hAFVoRwhxUByTtAGM+DAz3kofYT0M+mzD/UOBsWG6YXpFsaqyN78A2cLhMRkW6TlUdL/YWVYatFkG2wNzARKqEMlnjqUvW/h0W/LoD5lgTYfgRX5pJaKBs4hq9ijhT1UGQfPdv7E8B7tQCYUOhPrXlggdNMBII7U7SY2taZmZ6wRr7n3joUMWy4vY+7CUBqwMIzkghLG31mCw5h774WM1sR4L+yg71vkNAGZRYBkZjwScEpMaUyWtDBkKk1C07ZgB7TJsyB6DQF67iFROgDvAt+bj6q3h9KqP1elP47zrgXzG/AcuFhsrM18Yn4ZymqhqcZdgQ6FRBMpMGfib1mNnlCGd96hEWWYUeooFMArOaCCc6ZYfnKzLlEKMPX3g8AlDsTUCAaMIjBMGRvabBTJY5QByVQUN4MS4ybkyjQI5IzOD24VsIr6DuaKh06KvCERZnYPB3qbxfaViqiuSilY78tZekxUGH3MOAg5ecDpN9yj31HAM+gC0oW+5LpZVqPLgE+sehw4rGfzwpEtZoisd3S6iGct6vmgR2smqQdqmbkUCedDzgBRRgGmHmXEWJqq1RrPiyANTiJmzC+SIWzwVTXaG9Rt2yMlUlvMANYedxhxWllcBNgVHEMYPGd9zhYgUAHmA0CZvpc1zZGJxteiUG95MTQG2khDgiL05RPGi420H+LEH/LHd0fSfKTSZPAeqmDZnbwHVkyAHllG5mdaQdAobmeAAgMs1gvkqM/HhTy6gUA1o93qHXPMKF8EVdHC/RLak6q7oDz2MiGzp8hELcmEGLz+6pjdcyAqB3KvrIrROk8OgnGB1ob+BLmADo/pBbAu4xgkzyEHDe2PMaZnAyVAcnFWKx69TrwY50DSXjzGQnNwPD0Kt5r7jdc9N+LBzygEBQ1C0EtqZVlKBIfXdqEJ5fJVUWq97QDZpZ78dZmI62YDvGQ0LTgn0XwR47kQ5s66AOAcsDSAqAIJRFx4nM4UkPvNgCsKIQmrQPXpERWMMaEIQaRKy3upbFBgckMd6GgWAVUt4IgA9NAZB3Yl/w7g+BXmg5Y6ITTm8DlmLF+W5vlJhI3KkjDpFuPRZYnlnidXPxPCQA3sjQIlDL2SwbkIeCzcwwTx4AS7F1uV1fmyZTLjm9ad8NJkGJ0wSRSHIxxZP49jK1CANiym+UhQj3kya7nvewgB60CB3G/yfYkAAuHuZxAxwBrAmv4mI0OtY+F6kkT7oQohlomW822whoV6KLRvOQxUrQWHSFKxpL6MIV5pWMInQ/97m6enh1YsOlCB+WAUnOQyfkCxvH/JQHsqz8PdHICxGws+Dcdy15Hp5cW8OLyUc3131Szy+RozHmadbn1ZXX2rFhYHC0YM4ANAflp0p1QmFgkpmOGGa2cdT668QFaQuRuRcbCgE1JDBnX3nBKexVqR3rrpDG7FqeE/CGonxmmtGRm/UNc2BiAnyBgFfclrJBMeY9ARESZ46kyz0gx+7tg12E/wE7l7cKixf3yEfh2UF6ABoE1hg4AjT3KAHFx+enzz/xJHOk2mfI3mILGjEKrsTPFk+z8rhXFtmImLYnXZgIQgJ5Br8wo7C1cMvYy2el8NMEFLnGFPRABRLEpgVKgzcXTv5kZy4dWATzwJAjMRAmuKQPqgGWBCRD4Pm5OWQMDBeeqMOkIZmOCUwOwriai6cnXySwAHKy9QJeZoQLju8zAgYTG9x0T309LAWpOwCxQrwLr1/XRKfhxLcjS90ZVjH2cdmB8JvVRUgDfDDUagZmNTrcKowbwja0H5KmFeYbgSrklpgdBwbeyHrXf9I/BocTSSB9aJ4ZMfUuzqGLVscgV4kupmL9IQMUhHWE8BuCWu1xyCABtwNFbgtXGP4Dnmy8ASlCMR5LeU8iLADhafzMo30Y65nGCTh/LomOft154df1CXhCs2knJhMj/rWY/3THQRGSzA1f7fDaWaeYQFTL5Eez5Vj0uKGYDTSUBAIrvQD2dySnsYVMCAKmY5nvphaAvKAL5BwtKMoBewk4YmkEBYD88EJcFtdIOEtwGYCc2DSMUeLnFxmCNEviydH4Ngmg87djWczw5TXQpPmIl2n125ar1cknor6Yr/kpiVtrshFa2/+rvuMTBBQJ4aWKDpJTBc5sOasxhHWAmixzH+lWTQGU0viuAYQY6kUI1W1qhzkqV0UIzAe559Zk1DoDJPhFtsh9xxI7WiXuqsccCwOIC3x1qiMWSaQLcwgjHroKXgsbAhsOOQD9BDxmGLmx9fK4kU17uq6omf0fslHtnWNq1dprf+W658yfXL2XGsXlhVhjgLNt7uQFswsR2QJPAg4XtzCTQvddureUbq1DqJYHswboAAqGJCb+ZHN3qZs3JPFQu9vN+Y8F2aDwUuQeQYqMNgHgPPlwSMBRMSWLLuJrYRLFha9On35gZJ9oBGQS/1yKEQReFTyeu4gnK9zbqLE168p7PFRsAEgQO0ko/EV5ymoFfjBD/kgAmE46Zyz3q+xliijUsTHaoCogE3RuBn2Osc9rGtnLEZr8NMLQBiRctlWXUnqV4HZZms9ohcFbY2BWluvB/pl7xG6gaWPKG/b2xO5xvWhREyoFpCbCOUFuuFuo4XZF9zMjceyf8KQ68OQAJrW5n7LF730sAm6Bt+mSHV1tSv3kcFDpqPQ5tOnWP/Fp88vsCoIWa2Rq3YRfk983OtK7YWSYYc2DWq30TCn2RSCuFEzsDYEaAMm4w7xb2lH4/DYB6NNYNdjYN6uV+0z6NKhjW0rEJa8mEkr0VxZlkNRMsCdtuJOZMw5C0iY3SfWm5wO6S7YEr4+RUQinLKwUveHYrd1jz1AEJXikWTceJ6e04jqcOll/yyn1bANMEPR21yyemx0BZT+zQrEcYe9JJg98jG7DeP6vrFRskzVxb97VDf4OTzcjaoF7Z+mSsxgT6NImBjgeqbQAevARwfgaG6akdwAuDqxNKx1lvOEBUfGoEaQH+akDABaeElXc4FFuGEoNJvedtdOb/MZumRmDtV0f8aM0eKIkg8kAhv5Qv+m0BNKb7cTUA+SR8aHnUoP5OPxvb803VwYZU9iN2z+3Wf7UedqAmvgo0B9JilmGj4kg7kClj7PvdD2Sd+bj3wPlY60hFkBQwB0C/dAfmBUrNVvXJ0/SCKEPt4zDgMIF9QdPEVhwzq60xFu7p1rJ7AOZUcGEAHXpNcF7GqzDqaNdecHifk4/pr7R2+nZuaOTp3K2SBYz900+stsDEPFBbJdmOn4CKQtTAM3A0Kuhsb27VkvTGgANlMQEMnzIHUu1XB58lgADtP+ho4ryw6GB/IzNy6R6NvQcpALWCQ4L1a57hSqhLdvBmt1FYlehxKGwjQ83fQipzDrYzSOoGzOzeGosn/evH6g+3OK356XD8BSz67ezoSEo1jEkBZ7+b5XAaNBbHbeZ4mJX6iO4vJXabCRiPxUZHghkkEOmZBo0uMBusHYpRsRJY/0pP3IOFRdZkHINJGI+IieXsLuY4WM43fUvJnGfWF31jHtzS1hkEZtRthStXei/2+8VjBns5Faubl9nHyGwnxCShvbyhXNrFSuLVVy5/PzTwXQGkOmRfcwAZmHjvZXp6y60Cos99PQFPA7v274xSuiCTB+KQgDB/kG6dClwZW97ZRLtAWCM1uucf+aAxYdkP5EivWGEcYPbMPpQZui5UhXSa4Z8gbSSpoMQOyxQmtD/4s/FdGl89Injr7mA9dkDVwf5Za/Yhm4XPwDjYfKWI5rIFMP/h1ATDf9sX8V0BwAIw4015O/Ku1cl0oNlXa7xRs7b1uEE2RtLe7Is5oDOZ6TBuVY9hkruyo97eoOMz1AgO3ZGgcr8C1D82fCyA/lD6obNAAIcCC05RZtgCkjSgX7wNlJOrA4cGb5KbDwxgcvsPSZf6aTLY20lBGh/kPluUn60F1dTo/pTft1yBDCecyTvfV0LfFABxQSnTChoogbcFPgG5TTaTgeSo7DZcqUknCZj5OEHSCva+zJQfEqBSYS0wU3iiHQl2AMUbEOA9xWJyayy2CJbMU6jZYWkVBpwDGWBggNOpZkYOOGfBW10erHupUEAwxtbnyTsq++OWO0A/9wjLMFi3dxzg2sbAmuPIQyexmDU+UzMrlGo5bufCf7vt+vcEMEIUmMgWOEeE/dje4cG6/HPFd/rWyWeb1SHiaO9aG4MJKZlNgKYtF37gDq7dm/On0D3KEwBC14889QcI9QZBQZ98zsVeZw1wGWTska3hGgOJG7BO9VBBEEB3lYWmLRT8Lk1EGoD653KODcssgfOwwmDBKrZFxc7XEIYdEpCMxhypzpri/RFyVXN1gDRfSOgfFQBvQ3aOnsg6auhvtt3GYpdjPQs3EjsEnzVVbIGYAThBBqDGsPzctrSwSwKdrbcr9QZsfd8SyCxOQDa35F0A1OEhdnr4EygAGxWUmOgXwOfUzVkysM0y8UCoQJsNSInfteaiiRQqYG+fYwxhbpUlGn1nc93TCdoGwxAyjQtACVlsg13Y+2TFyvG0ZpoyUMHZRfbjRuS/JwBsEaLjMmQCpFnc5ZXKA4x0y0uLY2DV/mNnRvhxVCQx09k4slZOusOZXRJYA6hWTcpWmVbOKkmoj5lYmPBwRDAfyIOIFiw6GJdrtKsFECdA4g7aPrLDKDPXHZQUTITLYWMXLeztxJIzHh+wmH6pCytUbbTgoAH3Mw3GYM9knnMwGOWPmdGORTiNB7UQlNuZwDve6D710fUdAbDwv4D6YRlZ9B/e/KhYgGOgXIFKJLPupATmZ436SEk8p6dxuDUUvwxygqP6j3bN95yBbXQrdPIULJUlSp3L31YvPSxrtT4awDw4DV4DGIQ0utq4+gCdrMkoEbYdG9yB9SbwMoBWyMzFyMS4I4YHoDbYDQq2SffG8SiPCwBUjuxDWC7TRrLqxC9BDSbVHZ2OcX3Si//l9Q0BjJSh02vrQ5h6tm1vftI5mg4Gtoa2hV2gO4E2QCmXYgK8XC/RMKwqIi5f7skjo9Udba0yOAzaz2wV2IBHOJIe0IBT70vi19Ase2/TMUfFGvg5rD/vDv/rHB8A0lXZTAgwxzFSLGzHCrBzrOtkoACGl2ngShfXGo11PA64eH+yuzzKMAc8w6cMZPHi47H691xC3xAAe9/1wS48MGsU+dsfdGz0ip0J/RlxzsFY82BcPjBnhDGNoy/bWNQzrd0I0mvf1wXRR83AOgVgMxm4O2Ao13ZLdVMQ2ljogWC8x6kmujsrwQ9Qf7TZkQ4aSio+1ENpQWiR4nD4GyD/XKfSUpkyQf6g6iyJwO7h7Kg817LqxbDoFcEZYHr0BWFX997TCuRvRQa+LgDdNPAYzlmmxS/ezDTvRhrnhOYtsGAVDw61mIE2ITtARU6ys6artADZMiUycx4ZVJ11hcGtOMNhabYuzJBLjEMfHUJPK7Dy8RJ9PHz6zglX0jzrAsh/oZpiqYWYlLOXIPfqa2IHLv6atnBRpm4dc4kURge42BfOfOSCH4Mlrs327P3t611WxvAppG8lan1dADnMXgV8p45lKt+gHLB9FXQm0C3DKlFAj6LU+SyrwbonhXbIZHIlc+I4vmg4VzYdzHzPx7ZkngXjkGTCflbrDvEwwjx94fhnYNvuzSXw38nB8Rt7JhbWteILvzFi5Nm8QLsAEjeWfEUwrl7XanG7MPsaW4Z7mtXC52NZKGA+tXefj2ECK1d9P/0YK13gtALfKZ/8qgBm4UyEDKwRy0oFeW2BJTNFE4i8cZUr02qj1w7VDyY1YJh3ulmUT0FDllk8lIwj8zmsD9nZoJbeG5cAcBR0aQngYsLgWRuI7BoEmSVmWuMtsHNHV187ifQCq/wv1SOXAka4gxXgxtk2/SBO1ufe+tsLq5XuT8NwXHdd6JI7vqW3OSswApaTtq8gmtkBt340vpOy/lUBaMj0T5lHjO1hXk0epbGj+eo+crpvAlAFXwvY9bjD7MhFQ2FPJIaQKAOsjKZjUlFfUXrmAx6zsJfGadBhGyTIygA9fUGOyVQRcDNjh9cWxfsm9P0n41iZ/WukbpHeCN+ZJMSkCE14DQOQo2AvLP/zTEvxM+OW8bn2lNVgtQ5soLUgdLucRuMIFc9iojvGF5tKPBfr6w6JLwpAneLGE5+9lGsquJR6UZlUFs4c0DYg/SShzOW1AgHxdANw21tVOp6Ao38tosNeDStKj29zsvVku1WGchjvYBIbsFCjwr7npGxWPOwT1Lz3jiOCQYE1rgnzocDyuK3C/DJ7u7PTEHNLWxdz2kwwi7P0l8ofGIiduSqRVj1X/rrGWQLTHtlm980HmS3qQFxyAqBvHIGvCWCmCKCgxA/8BfOP8J6SNZNi+cVt1ArTPgY7zBxGaXLSbN2tXmOpR7UIL7e8q/SLyeoLRqA7mOTELsKDBXFpZPKrYomht4AYkL5nu/rAcJbHlx63wvg8+9lAcdVmjtKN2MhbcR5e5kALXJyMZ6wdypSLyfbqE9gf2xqmgSUwe3ny56RnXftCvRP1H3lRcjsCX0/X/ZoAsHexKZkMuaowcjnrLnAKOLTxuknoUck0YPUYsTNKdDbHlO2q0qPCEwBCUpUMjMLb7rNRGVQaggboysgZ8w1LZnV6ugsAsIfKJm34zYMcsFWukTNXNsNQKxzAmYaZI0lcahlYNbH5QRlz6U/2HQEthybMzNjYu5n6alXYt6s8WYb5kMfkCujYuxy+IR7A4wjUL0PRrwkgg+sw0W+cg6d2Fj8QTuwnZCOwSEwIB7GZyYk7ypmDpeZXJinTr3V7thrIgUPMh2urO0aLeZYAn+ZgQQFD59DaqYabADYLi0OncGcD6mtoLFFlbDI5tiVzmrbKshdvDVWyF6O/jKDUXpk4eqygqXUcZ44yE3ZuunLbuh0CsxR9dQw97/oYBWs5xuukgAUuTEuueCz8+DIb+5IAOlP7sYLtphL5KVjyyiwPbGbg71WWMVjSwGJEIEwPHAQ7x+5sJLh28KeUcumrczsNsWgZNRA4Gd1NQWbFyyyvrScjz/7Y/87sM2cyS4CocBpgmpgiCn0Y2b/P49gETnCojgNTrf5eW22NpdjspTKOlWSvSjKrvjT8bXOY++GAmquJ6LMiGvRX9CP1+PpNmKnTIZG+6pD4igDY0FqmrBjLU1kmx1JYLVhiAiLPqkZ2yC40EgAYrMrC4zKvjaPdG/0/WQalwmerhy1kN3nxOOtKM9yCebxNNVggWLO1No6XAaAHYnPc6+3AoqXG0cBRjAczVzslz0TPEcmB8R8hQGSVEWiKqcH1Z2Pho5i3Sp4yEW/C4NrPps/fPH12K5TRDpXPaqj1Vf90Puw3BID1odNstdA5U4axKhzMOy+TbN60CagNdBw4s26wMgzfWCNYsMRClzvPbiZmzYXtH9nMIeY5HFgBrSAxEP4gJIJ1pL96s25l8uSPZm4nu5oD1BOWDs7CgO2m2rdYI3/EIZF05inAKr4CDmL1ZWnl2KTCVt5Kv/Jgo9CJffH2ml01nX0d4acfTnMI1b5SzKiEjhr6N3jSLwsAaE85UGfdzhn+FJ74+wx2yiLQX5Q6q0EV27EQ+NnEWAa/6VnHKQK0L3gVWEK3HhEsawUiF8BEfAeKhcnrkEAqs5sE8PFEtO0GQqHPfQHK9CkIdA7YLbQeQM7IDuRus9FiLB32bMQBDZUZv3Uw+3SS2GJO9oFhGa2t6koItZD1K+XdTkw5babA2xh/2Hhiq2s9KN4XzfAXBIC3Akg+M+/KwwVku/+5MqD0GViHhS0I++pK41y6jCNulNezK8zA8s1zdidni9idiirJEwkXbVsx7w8gLv6PM2XR53tmnHVNZ5sBj2Vm8IvpiKzFFphfNpHgTI3JKmBWCQRvI7O9Z/Hk6riTTefncroXcCPsdw+xPwsApKE/pTrM1zub6lT6cs1BJR7o74tm+AsCyGozzo435H4QMz+j3zooji7aeYFZAZGE4lgiMbTR4yxDOIbEsil4AmCgU2WrbMrltG+z5OuLaXl+YMPAScpk/zW+x1b+qMhkhj55gCmbWFxRTjG0rHGKZ4MyanTBOdbilY2+o94l97laQjO5Sfcj9bM2qKaZ9WFUrwcD/Zxv55qselsby8EUWJVFx/Dh6+fP5R2/IYDugSGO7iH8BAbRrTg70CNR2K4fGB6GODDmB1uL4x449onZy9jBrN/JTq0DTwGit5Aa30mDwkYWzohhX6GKlSEenx2AFoab04ugwTugJWjdPSa23NUM6wIKj0B/6CpjbCWsTlEQhITFBjxAF113AQ/QGAcmBmLRjk5zcHC/Msz3tLaWa36O6gMMaq/9mxY6WJp+dVCalgFCF8rSEfVrXSS+0DNu86w/v7zPhso4lWiwErth4WELmrVnsu4E+PZoZJ7sNCw+7SXM7APTE0b1OhKNNmvhIFn8Ig5NMQDZrH9kZ8KyJa+bDxrv0AEliwUlTyNQ44I+ILrOolvULoGrTF8PrEFm6Z6lLzIjA+BIR2UeOZsULxJQ6Goz5X/59O+qXWyGz+WEKPW1i+LooXv+C7cqdoL1tALza6WTnwugbZnuqjPcsL86kFhytUAl79w6YNO5xpQdx4zZzIYWOrHwMZO447QUJYjMykyEFplpdKbA0j1nIDH0WQmIgCqIbA00nqlZfiVECVsORNZQc86IAg/E1RTxhEr0ViRWc2Xg0i1C4STWztsHGdO61hxg6IN692WlbkGZZzNM0UFC4yBx1xHIX+ol9LkAKh4CMP7CtR6bqjS1LX9kPEMRpUhNqM6oTbCzoa10J8XPldiXS2RCBQ+pT5xmNOm4S4VjljlA5Hm/UFMwwYA50puWblzzckYYAaCzDmxsOg/F26Llq0fmgbJ0QxK0cgBOkpo7A5fgB5GjS2xfViZA66p7oi3C6vPz3wPvay9baDItJ/XTAkWr1aJMCaH0dEvLl8ICnwpg0j9c90e/UNgqobIFB31y+lkutIUzrnJu5gqAIq2jLOQoygLiyrEkke2EyJ1HgUUGBolHqoe1dM6thml1olQ3TJblIpwCAPwlqLFJg+w7YMEDaJ/iYeATR5I7tiUAAXOBDRU6E3OnQJXLGkEJVFCquSC4sHqO857v2M0b1iZ0ns+E4cRFIJLEduymsNTTlyJjnwpAASsZOr9g7TrDc14nYGcurnH8av1RGhbP4QsJsMe4jpM4QwC+OfaYcKQyQ8yctAw4niPHj8dAXm3WbdKfNSFJOnQ6cA7P9QVETcuAZIFjseAXXEPYvxKaitGxwl6NK0Tlu/i45coWM3tOj+DKGWnvhyPqfe/Z2I9c2Fc/4K8umR1WeF319Ah9iQp83jPOmsC1R+eyt+BVr+yJEgv7XDTsswbt/8Kra0lZNV67ZbqMFeM8KuaDMByY7JevpLOJ82E9M7ZtMJhPbnaWcx1/B2aZtAzlQiPfiMEYB8N5cYaLnPrkU2WSBUTUOIWB53lkBicOVH1mYT0Udn34O3V5fQi9Xzctt+oZQwdM1KJkcYfWdv9IVPxCj6vPBYDP5+CJ+hBAsSgiiK4+AYd57gA7oDypdwWlK1XxqjoUV5WtI4Zw1Mii+OfvT767AGLHQSTUYX4aIGvN80pNoReUYWMAIA+ImlhLEA6QBNZrgLhsIHLOMnZw+/hkBv/nKrAC+4ZhuzjtQ6Pwq4fD2XBQm2Z+5W6k5yM38aTQkCDARlu9Fk8z/AWP3GcCqCx4nvdSDB4s9kpg0sdb0xWtsakQ78dLaPVgJ4+USsbLSHw0pKNrynoanIIUWHG0m1KlZQ8RAnDKo3d5I1gmX4wXFJYEeGaJHtJxySV2rmQFazZqYJyZU5rxOVx0PaKe53aQqxPVeDv6QkT51DNvvJ0EffTlVLcts6dfMMOfCQBnfBmWx2LGdWdMoWk5tSt8wX1La9as+G5zAJKwAg6GIDI14fk4Mr7PSZsrovoQZF+ZOcs9ECfXJnsgKhwDcWNcOAjKPnB8pzXiiy76SvdHtqRdpkOw4fXKYQyJ4TGcKDZvsV0P7N/n6gBonnEcw7j26ukhedkX+vj2o2/w88LepWFQ6QzMfCFX+jMBpA23K6M8TsBzxU6HAmCH6MogACyvJ0cGqpmOvi/sy4Bzwn4z/mwoCjktVAcMej4vJ00Vtho7X7FgSdJJHZShlt3WQHUuMuybO9gvOBjWvTQzzCthY9lohjrDEgND8Ra4Eku8zdA+eX3C4RC/6f1jSZ93+OGB1OdQ7xkbNlNlMLQlhrqtrdxavc9dop8JIELbcBjI4wT0lwnYPAdYy/MkVOYP7TuUvPTIxAUG0nTHWroq+JFnQ8oVSuudlFpbBHgHt2grJLtDiNafbjaYamWOAeSXw8CJvpq2UgYBO185x5bFGuKLAySNUE1bDaeiMr+QAzjt2rvF/c1zvuDJqWA+XaQHX+bLywV3+GZMzdIjQj6tI4bhZX90pfr0rT8VwGYpd+khgHky9DFetoMeLLorXmm0mAnF+Kr0wlhr5xQAwnbf2CfdR8gsmhcjOuD0RhfGUHynkPfMwmaGEQAY9D7ZCRBYBKtFvQTAdyMJDlj3xJCj41ZnpmxcMMnZUCuwMccR0PvgFO01/qGzHVaxlbSErA+aor5yK5x5KPtKl1uVzosB2DcJh+ohgC+4Iz4XgHWXme6BaY83ZRJ/iNfGJ3oZZlbrmvU0PNtAr8R0ICf6y8EpWOUTUsdCV7AA5eQXb3XzbKxFz1BJVr00lA6nwgcLbNrkw7AJd7egwMa1NkLsImsFONPW+AHEO+LWWJgU6S4CJ4PWZ1JeopeN3igmDxxUgDlizMg7E+gfC2wR4bXf40tA+RQG2W9Rm/VTd2zY+CkX+1QAQcvoZbiHb+9GL6aWEnIF9SpGBBJvd7BFVsrmFIJWSGcjTs0H0uRUcagiWLpRxj20atcNkQNVhz48qxHcJo3NxE42TF9n883YsIeejCRmljMMnZQ8p3kGT0q8cSo5Pj5xlsZg4uxs8nIWHr10x+RCVmusL/TWhSm/EMC7KdDL18eucmv5PgWinwigu3y2abjuGfiBVvKRJ1BKKtYk2ij9LI65sA2/iq3craRMYq5TQmFAs8RpKa2FToj9pQrmEAfvItQ+3hE2IAw86yzsrITDDlx0mOG6uBjUv19GF3Yg2zfppYCV4dhPRqdZoO0D63o6Vt/8zDoah0RYlLfirIa3F/MKvcz95o8+vmlEoD8TCdJJWuJove2WX+VTMvyJANiai2ez+4cAQAQKtvhbEGuWwSDIZGEhwwWxK5Y8AwFuXidgcg5Yg3mcdosLrDq5B68ZloLPoRawIQK9g6PSWbW9NeiG0J4T5Jj7s/nqDBZBLODgPBTsW2NHA6Y9hrAlYW0VDiA/zNKyWHm0r7gVLJd8tFHNohnrZe+Qe8rVmYh+lCWtwH3n9hrbdtSbfGYEPhbAgOrlsBplZPt+Q7t1/slskhq3KEeITA8y3nwBNOFAHE43zZvFagpYQrKZRT1EnaHtljtn3Cf7UOkbwP5ZQSrl5gJTyoWeyrKaFlYhZ4qnCjplQOS/hr3QA8HCnaOGGwwhBc5S2jIT4OgoWUvGqQ90ll16+yzseqXqeZlDghq4vKfQ9faDo7HB0b/gcyv8sQDUdXMfWBf/85sXKe9SOJRdxbKCaoXWIB5lnSPpVx6lhrDUcocd2Qr+1mDdVQtEuz/sHgfeZb9qg2ykqRQYUsmcXuAPCMs26iYTW/Z0JUuzR/HyDunROpPJKQzI8GSkxLMwoMNzxRtSAD0WNTE/phmcgPTd+QbvhCXfWbVK1WHGYLzTcPtxfSwAabXNDB1pZPL87ilVvebzYNGEiw9z3NiuBJZ7Y2NXVgNkOZPJDPeNtnyLHF90/EBLT3Qe0WHUSz4SpGlLsDPNUdS96xH2nMt4x0F0STeyYobhI9tBJ/GpZ/bi861EBt1YUIxPwn7A8poRZnC6h6PNI5OP5otOvy+qgXk97X65L+t68RFmhS6bNplbV0/L3z0B3opvu82FuWKSlyNEAEMLlhsAiK0+b783WqpgquUDX0iPM/mF+HrNWuICcpN91uNK/cs0j/EYpC2Z82LYZOtF4zJjXWBlAfzCjDFumrVLNbctVc4Xdl7YKlTBZw/nJ0uU5vpA4vi2vdj5r/3PercSK5X0fI2Z4lmP2z8imTCaFi7+bQGICzbgK8XHEbiDOMW+Z95iySmkw4PAK8MCbh/m56UtgUOzAt1KGiyF/frhhEg9O5etqFVyWmXjAOA9DP+0/tk/vmLCHP+dzVcaQrTUIBySIglGuNdkuVVMEzOFepZpvMPDzGNNpzPnLKX1qnnxHnkf4jOUEU0HyW+qIHaoZCYSxzC4M+VovjO2Y1qq1uHPGT6XFI5Dw7rsVy8fpnA4qxMwBIQiYJsCyVtAvOY+U2ZEzPqPiHNQJzDgzAWX9HwAvC/t1tCVvMxXFrBzaqTnBJLNelOklkHdid9lskYDp0/fyYU7btCS4unwUYsNme17kXj+7DOqZ+ypG35k1tdvEjH2dfchzcqRjDB1lbk/UMKJqr7fIMM8++ZiOQ45AYEf6Xl1S/HtaOvgHAvolXMPsn4JLI5EjY16yhokgjdQbF5wMcixlUeKYrIAPEuFGXcPm+BuSb1qADqgV8J762tVZ2LGEj2fxPxT2WaBDfbP28g3QvKOHc5HKvhz7vqRg7+CMweHHCwRYmgY4Pdzf/SHAmBVUKlOGSOJNmoFCtYvfwtzgB7na4RomfW1cKLF+t5ZSKOARJCL3X679ZgDup+Wrz7zrLeEP3Np7VLpE1iRUJYpUfWwsVgP+jDBlh+RrTmQeZ59J+q1uBi78OGOQ2bSYudUaI29moOY0XJqM0P/s8jq3jgWCHsvqbPePaFXsO88AXr+El0tna6Xaff3eUjsQwGA/hSOklz9fKJneFVCIA1uFgzYboUxLRNMNl/jMmla2/op9kFyMXLeHRXDOPbQhLB0VhhwdvpZT7QirORhwG8NFsCUNIOs1bOzH9so5ptH1KrxGHdcbfx4GoB1OTuJnVY4NCO7FlifwLHNc0IAp8PhMrNnsuu+7nalKsorKTxFxGyr39Lnbi8z+8yd98Vhnx8KAJu5RWWu8p4AKWHbqGJ9YbMERk72+9QwpqrLbh3b+C+rorCbxgmICbKD/AJWR65OhNDD0G3Ar8YgE5/86F/S6PWJuop2JxQhBYCtTZKZz+Z9rljToM1batYqmnSLCrAdhwXtWgmcCI/zW3qk+CycRFfJvC3yeOkb2vMr3f2aCdSLD626q9vb0elV3y6kfnl9IgDr3cgwfFHg5urrmtMAe8ioO9HEpeVIXaESu7ntRlqa2to14QDQM8/uzcxYZ98ynmGA9MEBJ0UYwdmZpj4Wk6T6mS0eBbeywcpWToO38yDl1rbD54sPHFJphyB8jrqtzmQEDX1wfraOzrvTnBX/ewxo+KD55rDqAFl1/U/XixPwqJvvthBrGuJvCYCzFTgFI1rJbNcUXLy2Hw81qVS+6cY5sXSWQzUA+Iyc8tudnU4tz7kBWczA9v24wVVOO7E9q3Ww3Mcac8LkRg7f0dXDZviUwM2s1S3tfnsIINr6WlFSYfWqs+hXoCeiW4I0tJ/aXG4FZYF2ByEwL+W0xj/zdSxmvvqXNS2gU/NMC3/du+zFVXLnsLRZ326m8eL6UAA4qQmP0BxnSXNduuZwpoYUzmInMF83BLlz6cECVwEKFg26YWmbziHK3rMfZWNZbmUb+GSlccqUQNC2Z+bDuQ31gBaFXfdSY69Va6WrlxfCraZ8zlV+0aplpaeNdascJMegaGo8foM7uBrfnWZja2Lrc6Yk2cfpqYLqcyb6mp59/EsOJ+IyEqek9ElXyVmjN9mHxH1lqsCHKihv2JsqMAMEVjVX9mbYVpcAFwZ7C7bhFy0YHOEOLSVHvI8zA7seu4X9VWChI9gWVhaskY22ObGC3WrAH0q7MQU8hdcR5ipmHJzAw2HGUlakdYSbCjpOwuobsa3NAfYeEk6t1VNGjiWGTSzKStv9yNgcylmSK7VqB7Y++cB4spvPJTPTj0dtxFUodBb8LUxO00HXBpOM2WL1C+XCHwqgOpbPZuUGhS7UAmIKowcDy8GnY1MOpB5H9gudpEO5wvbPxnqgF5AOprUw+x8nB0dpM3TVM0OTHadgqSu8YcPmLI19DXaj1MKOTdBayyE470y4cNjFo3wyUCeZL5Q9iyOD42yupdHchiMwUGp3a9EwIkuZK8Y7P4+f536TBzNQ7tK6GmXN2JvHqrEAMHwBCH1shJlnX5pmq+cXUBecAs/JIJ7NjzqXs5+F+fQ7VaiVI+zl6QJOL8AE85ZYWq6s/mqHJ8CGjan5JukJZb0Sc2hX/LwRxadGAVQOCBirHNd2OgXACW2rOyjrBJgfGstFEoJV0DM9Q4vC8OO/vN5W2N6y0SNuPb3imPFZCb4xC+Nl5sSluCwofwmH2x8WxrTzF8zwZzA0sc0h4/30OdE12tiTEFiCIx7ppRsSz5LsRKtWl+FlnypgoJeJTkFxZgeUawGh5Yikzt/LWXKmP5TbU4FRGEs1XcEgvKvQ8TKUMX06Gr0/TfB21Awni4rlEE7rAAPgIqvAl61g8Tcz6M3bvAJJWKDKhbPtcpUp2U3aRm8PZnh63eSF9b1ydJ+EB2rGOizzG4Uv9Iz4RAAb8EdglwsYzT6HgBTUlApJQexqXGDqmQDGsVFVFvztjlW8LNSwWzzfkbNCeuWcKaxnr4W9I5jUx4Gp3EZ0DmP3azpqrNh81ZfaWOBo05RZDVRv/tDIjMTFiHnRIcpBAOqc9YvwjROAlU1w48Lnc7UUs8ZkxsH4b2O2h15fVPjAmPyzWM1wPQNRbxjWo/WTPTh7nMXVoTl+hQl8IgDgu5YSWCazahsIcK++FJdpU1lWsY7hqWmA792Zq1I4LBA/SfZMqy8ocxYBmtigrSRYa7Y0nnkkW4uVS1w7a8ZwcOw9uyeYzxxaNFhr74xiysMKQMFQz6S80Jnn8FqO8ISlikxSgYCy5U1bPFPxZzpKhwDW9dCAZ1n1EeK9H1obZ7jQ6Fi+fXl2MD/8v/s9msPXpO0r/fs+EQDMLz3qoVthAh6eVbyMKLGWnXnlzB65CjnHvOUQc9QQaw93cy7nMtnXhw9QhmWG1Dp8bdztwspUvMvagRKooc2RTp8uiy8AgNjSiQvMZ64P5ycn6S2DYN+0htDJnEN0XGTPdD3YYztnMDXCLXTmQwdXTHnMdx1w9x/Q+HT79CcBWKDmqbgETNKaPHGG6Ofr/7EAGiB4ZutSDlKf2EFiNf3asPWxWrp6LwWYsreegOPs8gKlnQXY0VmT64nNzxAhMxAtj3hw3AxftdwtQZk1a+e5O0/PD4urOfxkW1Gmvt1Ltpl7YhqIa79mm5gxVuaJMi4ArcSORZ21zrZJj4IFIONJPrI05xeW6uga8cZVTl8vT1NPq6we6GtofV12/OL62BuK5wuAb2ShzBtkMsZgeg1r9NjpZ9jc0kee8XXxeAPqqTMd1UNkEQanG1nHIDZXYdG2cLIkb7kxa3DafoP6J4K1d4ygso0jloJnxAA7nHtteLmMAEPFKxHOX5YBO966R9diomGzvigZSr/A+FgN/uH7Zu80GGKAoRKPza4fWU0I4DS7z2nh9P+b5l0dLpcL0nIzQgyfyPZTd3SNIFfsv2e2SZiYALuFY2658KAywEftZT3aABXtRgymBY5YvDiAO2qe3MzQ8SARHPe1DANoHk260aLIXKAVScI6S62cNI53G5xc57r1t2pPMRlon7y0EdtCbMwDdgkHwPnCnGnSY+2cbQgqSDZzTisZZbYwzpQ2Vi6fabZHhsmjBnLhnRHPKcJHFvUtIjLz4SDFS625hLnIZX7aPetDAXS+Bw5ASR2qyKZYWBMsMAI7CPbJlaooLvjLi2qp0822MxdkmF6J1qo8QZqa2RIIYKYz8SdlkoJ5AFArG02sgzMSDMblGlS7QCQcuUyMSWnvOb4YqmotiW0oUqIrCEY3GhkDcw8sj3GsB1S2DAL34oD04/kK+10sx8lYJvjMdjVzVM94x5EHN2N9zMjkH/exAmdEigXgdky3IzXoZVLddwSw23AIjsGBxb0KjwFiwDISJ5qd2QSTzT1XhtkqfFdrLCQbM58TOBXbtelgwa7yZMy8MmMNwLWjGZi56NM6ABZPZTiFng6ZIVZjwptQsfUgNyBKR6u3Bn3MVPc5pMUO3FmwYR0M2BhUbO7E/kiFgxWowrXWN0KmBwGwtsXHKXmjXvu9yxqYreqZj11yn6Sl0JBDmQqnObblHcz0DBUr0QDSr6z1sWyRvE7hAYnYAzStoEFRyKvA2uKwsPk4V139NuppOdi2eV81KD1OGkQLHLKFrkzW6XOy/D5NAIPjJf0Dh1ofeqgeIfKhX5TD8irtQcYHkKJlqxCAYYQSitUDWI6rIm+ytezZwu/t65oIUNKs7/h2zsoYk89C5kyeWZ/yScX8J5lxjuNEHEuqGudC2U3fPvbwC0ZOoibtsp+tiSTQE7Sv7PSdd+nsy4xd6OoRBxFs7DJupdLDdEEyDtBWlQNTe3bWQenGII89U6OKu2kgGgZmoLNfikUgOVWVjAHmr0R/6ypc+sitNU4cvtp2H5C0dbmBy/nsczj/oTjVXMv+6rScqgjysbRw+/rUQC88rN8UQHe1cB5g5MjkSQNnH5jZeW0/GsUZxgYsKGlfvrfjWchbRhTOt6PPGr/SpOojjd5bp8oThEvij6CdYeNXgAow3TeRjant5rfjMyV2bj/mT5p+AUqozq8WfYy9sKE0uXrtlpjrvVlhGP4GGo+Fj+arvwpIuV6sEmd3rpNTjXdzyudilYchPnIPV3/X46mqHF/4q4vob9mAzqRw4PCcoS/q2krTfCgrEYzdyJTNByaeGEdglaGvgdnCyCUnDvdohoENUu/oLSegWrpZg83wsoMR6PFYnkXlrB2RBkvax8YzYU2AsI/LrYkrza+Lj+km4L3WRKRDB8fEpFSWarNGDyaAw+Rq1wEZXukiPSZ/RD5fA8YL5VxTa++VMuthjhDAxAbKywFkltBdnYxfdVj9rgCKV4AgzWzhGQagpH3M+vmws1cJDwNO4BqBfHS5azZJkrdMr+NqqFUb1eg6wwMGNjWOLJeQL/cFQZMdpLQpTIxkV8BhaQNMAI6x4nGrVHpKk4MNlsg+6UzJ4mnAwQ1nK3AqmsbQcIiR7VuOZVS1Jg/S3qDDp0guKHkm/uyvFnXqZIiQT2CWcjtLVedHBuZTAYDzQPePBiMsCiDOR+Pen/Q1ncpRGndYat2Pdtd3g2iH53CapgWWUg58n+c+0pILKzssA3qFJCedL+axBwVRAf3KbFYDIjfWQ23QUCy5vgqGlzlYEWHr5mdN7BkGS1nZKKHHbXX3Zk8yaXnADliLkHPl2Jjo+NBbioSd8Ef1z/l3XBq+v9cX9DwzPJNH96Pt9wQQARp7Y/iFyYMc8SqhW0rTkfgLmtDwjEQLJT81F4QAkrMSttYtZF/4u5M9+qbVCGdGc7CisRi+4FIwuTUuN6jvzSTYehsGKGzb19w5YOnRx9j+rMky4exf7XBKO06SZKJislZ+LK7jJuXEyTrmY145bZg7W52cnoN74Pc87Uav+tGp4b5KJwGS/Zp8aB0u1q990sP1MwG4yr6CBXYx9g2qiDWoLty2BuO1zrGOuu5R9OaUgDRsgltggwLbYKOt1pxFLI2LO94yInAqAHJhO4hKDFKw91qHVCZnkZdu+tSyckNj3ZjKi6FWTi01q1kIxngxj4NrHMQHfRSAyQE5WxIQcRBg3MgjFWxm9keo72VGnGqHZxcCeLgbL+Imq5UP7j/KkT7EVjnHCfgkKvaxAOjdBY/CySya2foEJ8GxRiUwdwF6Mw2PFaz0fKvvLCi9xSYym7TRycPB23Ybh/YXLcZArcQzpk6P0qzeLIZBIHIAz07qk3MfylhePIsFk2EnvOPzdO2jLNJGl4B3RUtfYrtFZ9XEjNmzPSInUQFZBdzIfAwwtBZF7Q2+ZIt9jvm0I1Ie+59J4tP+Pa53GidHDicN+80TQF1WmGc3oDQ0ACvSGvMhOd8RCDdxKFLOmUocWzkdjX2OWybpOVvJ2olckdOoYMIWrx/0TOOr1E3zkOnbEZe1qYVgtAIBhDAYjzNID54Azd7a9s5VCqeSc8nb5Z+jgppZIufMwJyxaLW1R7yQ3sZxVWc8CoHLqwqvlc1owGauAUXXT55e9iho+b0TwHea7K2ZadyBIHKt0pJNkWJ19s6WrQLdXoGdBx3J+qhA5Iy2uR/9JIo9zLToEzMsEkMLIDWcHWWj07D5OT2tLKgNsxqH144T0HrVyJy4upql5Az5AeNe+Meap182QVbu6gbJ2YkxGrCZGSYkrjJYIAvb3+vjTqGdcAKPleqPjNrrC+sOOlK3Doqzvt7U7LYo40yWIDQ4TtRvnoDdRiU1ibOy1T5LVIQZ69hoQKUwujVHzQnK1XNeEvuC2rByWmkSY0CjlXmcDytwxJCkGpzI5UQ/YAWsFhtnMih/j7mEmSMAZmEojOVo7JmbEuuW6kWHT8eEt+9YvYAriZl4lhrqj7SVSN8O9IkA1jablHfzpbHf5ou85yc6bNxscI7SywVaQWWTHR78kGF8COA3TwDWorDJ+2TUJOTG+CH2PGC2JNYCJ6giDVBONdKJDznF08dDyjmFQyeYpBRSvkGHZNVJQ/o5SYpdXeM4upVYKYJLwwRgeDp7IMVuxapshZ/Z4eaWo3vIwIyvZ3pWy76tRHX+d8x86Kzt77A4UJqApABkD14FJaTjqULs7cz+eZeLVc1YctfZ6+N4A06YO+ds/u4J6BtgW2HoXYRRrZ6Z4RTZJykBkCQt7B+XerFGn7hrlnXZGQB30gKLt0AEw7HlEkExmoz/6WLUdA2whNcGKxDtBHVQ2ByovdEAN8fDVzjnk+Gxmnni71UZjwgNC/ZIvmpYlGBLdEnYd2hogUFTzpZfMKrcKoRhlLnm1/Tmx265NWTAFrvZautcefVcZ9ffs7Wn2aLjV37zBMCulmlZFpzIvGqWUy4BWpgzf2OP1glRWJlnraE5jYcPxlwCLG/mCMY1iG65tVZBawFtVvpRmOYAeDiYr2WDPQ0BYfUBP6FnGJa21n2FIwwynUD4HnO28zyRqOVFY+GtMRZezpxoyoQNpckArH0iLwbyYsPhzUGg7Xod95L5MdlCU59zcGmSbvOeob+OLLT7XNX1BcMYx3m2JPKzJ9pvnoAdRBW3BvGK7dFJD3qJ7AWcgHBAD4CFCkhZtv7OvOEcWBTPaTysjD4cpvNsd1mUIfJhlQDkcoXV29PS4HI8kgm2WMVF2QBP22aQw4dusRvmoEBZ4Q50jNWldSVmMSnX8iK8ZUnQLw3hCft+55MvW2Ijq5XqGBy/B6vyVBgSHvz4vOhh7veVZp0sDi+2NQcRr27S+Xzt8UJh75ZTAPKbJ2Bnr1sOFcdqs78j9r8o2zBRABEfWhq+bAIZsKvVzrbDDcb4HMlrKsY0vfUTsbyCh4OcWFTxJLb/swlLrL4FVLd3ItfmDJNkt0ZqsEUizYu0SEx/aR5r03cFKlk/z4aJnFlSHcNkSz1xKFIeIdQOIhJgx3F8b8lrc6lAznodx3ofF04hHs5yMLEa5ruw1IeWDjZD/5WcVA60r17VAb9rA6BVfM/CUXh0jUdpfQonyEqmh0izVpb5Yi9rMQ8XZ+LBIp/adXEWqkoLDvfRrv5YYuntSo8XQ5NxtTH3TJUIQJlNNptrtaoftmSj1NmpgFiEYTIYoGvJW7i75ULOnHrO4Z2WI98PHVRoaaE+VHvHzXphM537GSiizJE8WkI/7K1yhupK3X2ZoHhct7zRo5nCJYDfPAE7OHVuzEVnWlmDKlagzgwwNGpRfBc0iUPD88SGYkGlxXnZav2W8JxGb2y3AJwWTQGdufZK9TMy9HtcueBsR8xoVnP73Fqd6twq8nA9F6vy5sJaE0fOgdieLrO1Oa8UCWe1k4EZNWdK/Yb36KUwwJEjngj6EBvraYXoa9rXvrmqt8vjBVLr0XBuPwJhZMs2Du60FLBhliRwTiz9pE7vK62L2dEq45MMwDcSwQAzBjsI7VdsStQo0+hRijaDZJr/BJbgpIe259ViNeWWbzDY3NgSsuba/wPqiKYUWHGDAGgij5mtbQPJ5kljH3roYTY9oJV+rL6ljvoFSW3BGal0zKl3Vypd6Nz8ym5EVQe7pmALZf/keSvFuqSdiaL1LIW0rY8TshKdIg0Bf491tP2kNyYjd5SuHf/8bQHsKaR2sCj2pieeCQmmuMMkjCaDA8hxPAEfcBgoAQvlkxf3FI85c/OIv+vjRqdY+bDazIxo9tfYF8lW7Sxxy8xeyCuwAXLcIfECIGy5n6EH8pETCh2eIVv4aNUyNLqJE67Yrsb5A6j6MFjv4EfI4Nhs3w52rOEp242dg4AMmlnYwxVHiR1bfNlp6zROW2Ca6UbiprmksjuL7+WTWvkvCACWbOVOJht100YbkqD5gdiyzScssM55lDiZh8UNYk7QzpijpjPYcsZWzzQ+TRy8h/1ndaNprX8whxuVs2OXW1aYrMkdrLsFLWgNpsR4vofeikzqX0uf7b/VOpRUAJInm7ADwg757WQK+AXhsJLRiaOxnUvz7M1/t5SAq2XwE+9rwD9NBleEiy5G3jeQX3/0OiDti48pAru84s7fFoB55FiKsQRQmJCYpEAATHcgW2WeUGY6BNgszoDlmSnd7DzNwHYyxi19EmgcaoHP0Qt9JyOuScIKnMgi8MgWTcRVJoDBvvOAS8OteBywlykUGOUiI4yrf5BN8DnOQcy+qGWsVGj8UGM6IwckKoNTMcAoceNiZZkN2urJVPY8CEBXwG+Tc/Q807WaF/r8xzExsjMb+eaIMzciYe9J2N7LpPiOAKAW2IIEAmA3N+1gMY3jgrHikUOq+gFrrKxLOcPXQjnkuZz9QF0TYqwMqoFP5xSwIzunhVjRkMRw5EngqUm0sDaQRMXqmHmMW4LVjizQxzHLMXVb8wBEHkn3Hm5R96hdipLMP5d63MDZKTJdQClM9tGPbSTcGyPCnPg0mP76/NBMceieWaMWuT5P8ExpTcRslkspXPx+0zLcBDXfBJD/gACY5pU1WZMOPUe2YoWgDq3xkb2Eir4mzl9zR/8oXzgsA9tbuP81030acf+WjqzVerbO5o9B2urqUugV6BJKIstYY2saXTsAubtFWIrD6ycL8Dr72nAAaD22vWFNl11eORKOHmtL2iJHMNe0CWjdXXVpShXof+iiwdlm7qWPs3PaLowwW+5LtZh2t5Zs3QpTsPErx2vdG56tRiL1qg/dn2bu/LoAmKAF1r4Ct8vzbfMAlXNIjS3KmvqK3fsoC+mVbpzZxbb8480gihj8SlSGJVyvLiBeK+Ow8qOM4hRzaLFCHm+NjW8qZCVVQcM3YT0g/cNnCtyRnxttsMCRKp3YQiICkqbreFTcGZBXm0kklk5c1zikxb1MMR7AdcIaAQ542qm7yNdnKIXFeKnB+uZy7zV0RImMmZ9i+ax57henqeatqYKFycpgXt1ziASUVckC+sV7gqZeveTq0fyK7SnNk97YzgmwkMWqKbPt94AVdmdjJAE5LRFLXGXrkaF9mMaRg50OTsdjVtVqWRk4Xsb1yUUlsiIGN9VyWIBYWTtvxUnWyBi4wDfXQmjpxKyVM6e0CBA0sLOrYDGs5wQ8etkLm01LQXV6L4RLavnbLN3hocb/y7MH+zBCbjziYezu8kcEIBs2QxZtVl645uAdKcSDDU9mM38dYLztel2zhY1p+VzPlll27aaAbIbkyZZLgOTw8BBz3QRHBoTVcTKH+YSh8r3GAaEb1smwKQn8AYfAHBsAIOXYdzbPlj36rH3HBlUm1a2agTX1NpxngJkBAawMeAvcsuduXYlplV48OOeDd05RSR2qh9ZpZ0Uh7DfDqs/SCqt3qXuaN/5JVsqXBzqnqI39jvYY1sSytaisAUhHrJe5rN3q8wcofXTnfD/NUAqrmxnzgorjIODbuW0u4Wxjg3Fp2GYXRzy1jZlPK7uMWbp4XLJWIv5WWgY1md0DXhVaubOHU7BeLtY+nd64q4ExTp3jP5uu1WEfV8u5DTVzDBSAHAAA/ZYjvlWummz+GXvOgbfRz8ZnHs+yMgMGO7l1O32nXR6fVcl8VQCwQSzfjbM6bAhcbeVfsb50Ze0CieZpM1YagB4btz34DRQt20fmHII0vVVBQBHFBGCE5+MDsM0P+FzJVWATG0f4kO4ElimxiR/LfjzeovlYbd0bRM2utycWhaaPlgvnr/YRpQSOpy/QQMzWsu86q7gfATY9+DRYJ1CSBYVxsN7qyc9UJHrdis2iZDbNi3jNyhggLXFWLHX11fuse/RXBUA6hk/Og3o6W2gU4KxPSngl0wCUYuHM00kdUsGVnc/6Pg8cHEEba83YV5KtAasCV9CJREKALd45Dm8UQ5reZnzasOCiPGL0h+bA2elxtXU8+QAnCHim9lrervWQcExXJMQFoFqvzMzpHpnpqoozMAUAW2T1DTqBwYslBmdT5rhX5hrI8/7n5wfBEQIGzzyQJwr9dIzJlwWwsyEVm8JtHqA80bmpXHQ6cqycAlCOc4S5/toBh1SsNiLUlwOS+DCwgbTJ7NBN92pwgVPHtt6KZ1ysQO1Ay9Pb2djE3rSqZblyUJqTCggEYMxgMXiR0/3WSM4wkWeKLtATlCZbHPM7fVgLG3Nc84gIa5wHM54qOLtYqws2bWGW67Nv4nHRC4lny/rsX8BWYzEtYSKngLNzhV6/8ccE0LcIihsZPof+ISgddE8zrDVtDnBtmeRwVC3Y04lp5qD7Num6sg/x8T/296OywCJWvmhW76r5HIAfGgNpAFKgXQKYAs1RWA+04r9x9hyJhVqhD4C6amKn73QkPSdqmT6AFiqw3iAfAEEsFYBpYGJFXJ4ilwuHvbJqBmrFzMAg8DTPWnw5cOLcOSArdEA8/dDQVYP0cO+OLZHCdgUBPqMB3xDAzuZTI43KjvKcfAn7R4gw6Iqj3sw1shaoAs1JSaIZnFGEI67NOfb4L+YiFbSMyaIcS282YdBxpuAMNPiNwYAKAhywsabEbom5IZUaE9Y8KN6B3rCahwSY+PpoYGB5EXx5NWBqXaIcx8rzwxdMOk+LtSxmI6HSCsvFOa9vtRwDYnA+vun5Z3tB99QLkQYI1BoYPLNbeZn5nDy7r7ljf0oAO580t1ptTGmegchQbEOw8Ndmb3JRAtaeGe1YRYB/gQyy2JANTjbFEdDGkRpslcXBS0eyvYBZ1dDVAxGCtoFPY3HYpzhKYtIQzwe7JNBvmjdwWH6feGsl6g4rKAzudgqW1l92mL3LNFfH8iXPTmbrhZH1FDsTmge90x3CaCDHlU3dsUVckLeOgbrnCngeNyA8/FriQQwWUTrF9eksse8IAFra9zgLlHJkH0Lm2EICbO62czksuFLGKMB00EI4BpmjxOl+ECx7YVfLkDITo0TIA9Y4Pg51P2Yi4X6ydk+3vyO+Yo8gliTjo5jlnCo+LYFrJK1RVyfGFZ1nlukBOssjRwKsInGgcTYjDmBqyn8Td+ZxQfmzNAPHeYxege58YCWWWCoO59yAHb+2BvU54TlDwB1PWqHHcCs26OaKznzaL+U7ArDJjozAwAoktpQpDBYBDzILAqyek756y21WKh8cgcl+fRU8vuTsoGtb4agBzhrgiGg+KLDptRbCPp0bSKpjCSBAV2NSMAvFmvWR4Gg8JmMWzlRKkOxiO2CplSHws6NuPNJRzOJGtu9NvgJshox3tCGsW1xVlPaixNYm5v+H8uSMUdwmPYhMP92JzuIrTDTvERxOWut4KqGr3JK6+dYnRpqf9q38lgDAXMJMHJcF8MPswmZVmWmw2YCyPdFIZZQIMUD3KDADm7k3yxPqhQqImginAfAVeghgA5uuL+0NXhmsjSvAJ1QNkAvONJ7JzCVnU2pfHUDHLD2n2gv1EwUzhJXcq6r5roLEGkeX5DObvqQ48RewFztqWeLKWVgvIO0Al42VA0K+yFrk0hun2+BwNLYMfAZy5akMwkOwEAD2hTKcFMutz3b5zc65ry5xDeof3McSUWYSjpoE8u1BVoc9FgE02FU2pUwwAvmoQWWHAjb3zsVcoplqyeibtrVuOEu4bbwJYCVTYQBblJBjja4lmuyJ87kgG/ANoJtWirUHbjhxpbn8GDpvfU23bTVvIhtIPgTPSnv23fRxAVW3nZPHoOpZvDGoJskZg5pHwvM8WGFCiS61W95cvbeh7aAvbCGPQ2/BiU4Yetrv113Af1MAe/HNGigx6YpMCB/XDAsl5i9BscyRkwIBQZf3muhB4sDUI2NpcAq3zR22f3YOgjh6+gA9YBFZNAMBAL921og3XUm4rqZWKIVNemn0W4PzQWlEB1JG/3CxPKSrmVw4fXM5kfpma6UVAtsYK1lAsLit5/+OJovWfQHot3EKOkC2FpbXZnavw/mdHUTeX8H5p7IjduRSZtzvmXYosZvOqflftoH6AwKYoUaseRbwVRY0MmMwsRfwypS33IbOBGZgfBztEsAU6I8u7MjUbf7nGgIK0puw2HOlPJMNgQyzvQ1nwHN+MB+MnppVHFjxenYMLVBsIA8RpAnKjoF4OvFgpavrdzpm42RAOKzbB6wCxyzZB3HmfRFraMMmcxdwyuzDyQHminero7KyGPjXRrPQH6LAn5cIbgiVIcjOzmHYPTtJwN7DNWth/Gbr4reugQ/pUTz1D+AOY/Gshbf+odjZkiwADzuAHQVVhM2JJYIlgC0INrXKpn7CACsxUPt/7Z2JYtw4kkSLxH3y//924yVIXZZs2XJ3qWcLM23LJakOJJB3RiyyC3nrA1UELXWVXxkbZCRS/oDvIordB0pAfSdWyzItRMNFDpOc09inFHj1MD2c25mSZYKcJSK8HKObzEZiaBv0WVKjZdueseZONyCzyWRGo9wy9JKUCp0fc+/yoGWe+9Vy65/ZLCj9yDXMPbamOJhxhheJiO29LfyaAEiNBapRE2z1aH0vxQMAcXR6F5tfc5ox6gL0RAKhSO/i9xPjkMebp/IPpze40yhrIW73hfkJDnww/3o/aOuXJ+LpRE2pMTQJBk5JBkmPXgf5uSikVZx7mYEzEWfFcY6//RWa8XzTVSaB+/Psv4odINcCxy9auTEejXSrQp7WXQeurSzqnyeWzrlKFIei8UnN4gZU53xqynptrf+WALTPN9l8YDTlr6fJ57cypDS9sTI36QiugymhAeCW7oG2DfMrjyKCgiyjyJcXCqzcbzmWoKzrPPd6kw8lO8zhotkIGjkFP/Lysvwd7xJt8hJIHBKINrMpZGjUd8Mz36pCrmDO5uZJPThvaOr0FMnqSPKbz8x030J5fQ8Yu2/k2uWwNfp3M5TDisZ1g4ds/wJCXJCzPS/pAZKYwKIdsut1fxEG/NoE/IkASL1qCyjUeqA0s+82VFLAEXCEtjRC8IMKl3QPRqKFZ3VF16d1YuouL0T+6a6DTbibR5eWAyrUCJMkahkP6IIXIltUQJYUcxKLK/QBMVCuPAhPDUTop2hgpwSPLZZR3YBHNkAtsw5GRC8HSRHhluwKeH97veRo6x4saMrR6DtoHeQXCyKOc4D4qRvAU9yUC2U9TXbbThPxAenqlwVAwXC/FanKRmpIChMPSO4NjdTRZ8tx+WRESF0hb+Hto/ohz+N/F9MGiPjYBUeJ2OVE19s2gCbYdSEGH9FgS0fVIabEP2QZwcKTH5Q25oWjbk3eJJUuM9girPWvogH2Y5O9gFwm7nIDsgxOlS5vMmTYB8P227bb20WN38kqSEyJHrxlOew7tOsR8jx3Bksf0IePD7AuxblN9R8TAJk5eYA6ugzEdLNJVc4/PXKKBEhu0oxi08CHvFFyzgqlKHVJBekzpSwbagOM3uqzYQ+KsDlDivB0kawZyDBaq+xxxg7nSDv7YNBjz/RISEaBuD8pyJJVUEwIVPSbvKg8TSO73RQN7orG8d2gPlBoTIouuQzS+hUR7D9K4kfRaFP3l/zqNwNLkkPe9LSFQ3Vp/l+1pHxFAIpOQI0HQ6Izjj1JyEF/QbtbwgMlmlfMVXB2BshVhQtAypf/yTt62iKcUUUPE0RvEG/lYUnJAXsWVv9PpFwZJQi9Wq0r9TCcz1XCKDcFe9JKeVEO6Cqcm6hwzppTAOwIIJtFetW3BruZbtu+shOA31MiNYT82xkcf7QsaKDEhTP0zCNhmTfZjUCwwQ289v1XcGVfEsBh1Smf9p3xMGCE2HjcGdrh5HueZFU5ecUmxoyX+JiKCRTT6CK4F2fOy1VdI7h1cxV2JQmV9BaFFRAecIkUFbQ966LIUbxt2gAdanl/cj/lbIGOJ+clb26eSmiDSxftsjhPDHF6oX3rSQp1G58z/ROBCkEJVrHfXpTWwutRZE5K2hxg45PpBysC75dVYDEOCFzylYj4K5zyP13yCeBv3BYTeRhg8JHaLKiV6E/SZBkv3QToZ4yz1hrRzqZaeTDWaUjlcIH2oWxqICmUdLz1i5vroH0r4MypyuupRym+yvuZuhJdSq7e5GHljfGIUo4Y8rMS0m74usovzFDSpIXJwE3Rt6T1dGYVa5ilt9YWq+C/Ou/P4vC7882VjGu/k4SygXX4lp/G8fiptpB6lwB+GYZ9UQB4AtGohlc8lpkQK8cZBcs+k/U83w0VGFKjlV7iVixFsxH2DN0RHeBd0VWVU8uH5eY2RViTwyul0aZcvM01Gfy4AXMIw3QsignoDFDg0aKcfUBJ6c6rZ3Fm1/G4GbUVtXpcIrY0gAVrpQKoKXTyN3mlu9WMHcbKG+LEc4fVEsUmFWqoITovenNuje1gmPzFXHsg0hvIJdeMfPglk+fXBQDHXTQTFIougP4YiY5PBabBsj41kIJJKP+ljxwfdrkTEkNqHrREnXd6gmbF+9SVmtBOSXEVIi3gISZ172JloK3PWlLR9kufUchq+nEQrrn5umdy1k+A9Sss1inpN9fpA9vrHvaamPOAa1RaaNdLJrl0stB+l3+gWwL+ls2VWXcX+QokpNhN2rAZXpO9FoloD5TgecQizTNGeLP+PT+DXv9lARw2ZMXOkXxW0BtROIVhGm0QiNzSTiUn0kHWydT7U4/gFuT+0CvUwFWF/VOm2ZraclQkvdUi7x46WpPlATGSHEk4Wivpd8VMqdAerPi1K9CQ7jpGZOCgXS46ZHKbYoHm6LlrOuPQim5BuhwHVhH6xswzjlyilLkQp3er3VtzCRCAgGfXBvh3CyWZYi8r2dCdw+afB17+VmzM51wC+DKFyacWXZ9p1+XM0EDi+UDcSaGXHnxonjsII+gX4mC/v3T1HNjrOUTvRhn6yZh1sCPtb7XwsEJRwIjkStUuva9IwZRUkqAHrSDFQ9yo2ybfRi4TIGlUd2U2rnmMm6G17valtIVvAAjRrSKtlEE7k688wH7dY3EQr+rHks32QYWix7NBUO9Obk7XJe/4avSfrb60nYzG0vRVJke3dudGGI3Sr2ZjviyAuYYap2UE3X7b+6QntEdaHTj/ycZjdMrl71k2fSzEVZdw2GyESzpIPuvqH9VHzyAPHRujRPJU9k0RgS6MTn6gJx9e89gmOWlUj17WlcqoKx0O9HJRUlPQkBQyPNXoN+ovDI7tkUbdAOukdJl8nP1G/1AMxUX5RS3uvSrYAh0PWka5PIz+mYOAre261kTsE/1PZ6rtgdn7eX6Zku5lWP/mxn6GQuarN2Buy9tcCA2yqNGq8/T36cxHwPNsmKdwwmR75XREVMLsWxw7fcwMvBrWh1Gf3WjT16EHYBRuVPpAdIop+WBjN8UEOmrbogECC9MzzyXL2YMHRcGGxkcGPe1JAvwv0mLtyyr+SFDAGQDea6ViUqb7ru/K86JEusthmKSvbc7bJ6vngNwVC1aNhtW5nx6Oe0p9PuU6ToEc73dV/GUBpKceSDvQGw0pAGL4sFriMq2aAJNcRpF0QCdWlsdTgUGhN+GsG23mAE2iW0aHjTjs6Mw9S+Xr36PUrUnI2swUqQ4PWIyPOIZjdEOGNOoOTHBK4zOm1k5jFs2h7DzZU4o3zBE3l5yU2G4AvbdN8bX3CZAVX5rXHVi4T9uuDyPNH1fL0IwLvOgqzMensMt8JTPbC7es/qop8W8I4FWooRhss1Byk58eZADbxbCMPgVSeMcHAtO5BTdlaMmU4nJI/RcmhqUVPGNPXIFhrXLWix3kqwdwkJmvaVnXTZaDiXU5pbICrcB3AQNEkqeS5qDRNzxzn2/sTLxZt8gu9dfJ001FLBVip70MvSd6t0gMbcHR5mZTxhZoWk1aboWed5ON6C2NZj3bJ2hEuXLPA/RSe9G6UDvSpzTQ1wTwA9Jju0i+Xqe3dOgUFMh51zlNrdDsI9Mop1WR7Kzs+mgViFoaUEHPAmhDGsvqAZRZdChpyj/ki8Q426aYOlJFhOEn0Z56K7CvQtWjsLxHKaiQr/n43VOKd2tODBJM686Sv9PhUoq1eqAodjn6e6jYjB1moO0ZEH9nenjQk0wQHivsT8eJTFWusMta5y2ndM4y/ZpI9esCKO90vcz+HMHr6lvHj+5CllGNls5JCpAVAHFGk7Ftj/0EG5tzhlsmYLZZsUK5lTs/yeIwZSzPp8FMY5wzZrmlQ2Iv7Sj7AHUotVwYIpMEFOJdhhgr4BpcintX9ADZjKI4Zlfl3zvDBpH6kb/lWw0NoFqF+Loe1dUFNcQT7PLBat3tbVtdLJ1kBqcSCNYMwIcGBX7+ckL+bwjgA+JR6+LXCcrQgxUZLaqz0qxSN5m2iKwIiyS+zvK0YYcrGz/kkt72Kestnx/6vmzAEGl0ulZoCgRMIPrZZVYUo9m4imtgVow9Av0mIcgV31sjtZQulPsMvcauh4uNDgSpeddlGRJOpvN7jLoKFBJbxBIEvGAFeauTfTUN8KUu8CTtnIZhMpwIrSdTEimUYAW4E9/5V9ORf0MAH/Y9EozAugqggQzYCFcf1AbyKi0T1QPqX2dl7vIJSIBc8Q1s8D7pPEwKMEDQoDCwg4VTbNIepucGng0fnUyQTAPnEQiUojih61s9UPTP8TJB/ml+3rwgNn6XZddDNsIDG5beD4lyRWi72Y1bHUwj9P2p18I02C0BDsvxNoDEeZJpDvIc9gILJeYT/RBfFkD+cAZ8Zmu6oX4rR7SmTB/opZcgraLXYdvzYWkdO2gJjJSWYt8cR5/SGgdu7xQf59i3waRNMYA5Rb4EGQHLrLskf0q+zy1MqlYBd0lmUhqIC/ccdT9l1srOsL3vCXc0K+Al96Gr2bMN1CvEyk72Z89EwDor9K68smhoMa6mkQ9dAugLn0ALpt/+uUTc1wTQ95/IuNOxE0APTps0UfGRGNhgnTddYpJGEC37XJms2rsni7bpCCoUbmDHzWhp9pgKmFwV9PuRne956oiDCh1lLCokhNFUm9QVbG2kajqYcripNMC/SCnLxUQ7Vo/TT+KYjsWkuET+GuPkuwJ6xRNwMNUgJ4ESwe2pmVrKyW0nCMXylw8DaT35Y9pV3t9OBpPPEPh8TQDxJxywdgmkBc6TE3yEU4YOPk/pXYYTMPgnlSB9r9PWb4m8kBzBAjIIaLxHczIB0bxa8J2BoiTzas1QXeqL6cCtS/MPyHFlfgHPaJHs3qDoVl+llCFVwqwCcC8nVsGhnGJF0FGXJhCseenNkmhsp16/flm+tAIPLzcB/zRd14E2JPJycTVCw7NoY7ZMq8/aP6uBvlAR+1WqSeHWnhWfPbfBFqpZ4BnK0DHhKZ1i34kjgstbGacYUkKWdpDzCffdreUedNL3DVfVwZ94NMtPOKZzUouN/gCGBW90xypM892o4STkzATZSwnoFhQwuGDotqwc9VFdCapiFTt8S51W3uiME1rqaQcQOVEYpdPaBvEs4nTkTPAgzhtANTssoHyafdunEnFfEcBwn7DyGQDzUU5F7JgG07aUDDFAZOJo8d6RbMSB73uRV169LgJAzeTUhrwl476TYc3a8M0xFy7DEIxPhkERiC3cSO0IO0XJWrl6RZ6Sg6sslWf8ArMDclV8kyHiLui800ZP/1bNN+zV7kd3xj+8p20bhbYJKaqs+5Vv/QQipffUMejHbGtcNsCdLe9+jfB+qhTwJQHkT6X6pEJ2xb1doSQ53l60YzrPJIUtrvdWKtQmSK8nMBwOGlLc0D9BdZL1ts5qgHXl7jGqfnNkhRqwQoaSNOVyTgLl0IeTFZ9JDqbUf0qzgOMoz+gJU8hmVKV9vAUB8D5QcYOpfulJt4fd8KKkj9bQtX6C+T5ZLlJtaCGAqMkabtJTE5rztFTQZae3xUn9CRLJc/2hAH49+XH9YDePqI6B51mz1LQ8+J6T4s2zOU0RTwYg6KYzLCeoF0dZpcqlcbuiHvreHDAeYGDiv4BQXkszgJMM4FNv5Pyo3Ot5jBJLaiWlIy/mrf7ce0U/2GbYl80zzxiLtRYCaynfJrmV+9RNAPfvrPl638iKbvIjpNolo2ytLhLDAAxvzYVenQA3o4Sa6ee8MS/XHwogfvqKMUbkcfSYItqZHKN2Ns4WNoAKk2JMOJJ8lxovN2hPdOYd6TiQo/V/xu+jDi7WdvdUCY7SZLPT4oSTx5MC48pyScG5HjLANnsMHqA1YW/Pl8D+i8xuV9rbHXMKxSsQrtA/SPcnWWMpnL4pBKiU0WICpFGekzHGxUgVMkmRrSxcX3hS1ytMo1PePmuC/1gA707SfrimJcJomtpSh8fC0DZMAFK7jhRA0bknzdY32QM3qLMzcL/LK4pZQUM5wlalX7Rj8sEp/VEv6CvpO4YcK1gBFDxUOKYB15T5xDsH+K/Vt61vZvvXDEE6+wOk1KuOumXBGS4hPUJdNMph4N2WvFVdhjazIjVH9LIIW17dgAV89yuUrJfryxWxTy6CgkTT8baXls9paUod2pu4DZg2nWe2KciMycMNU/eiU3cEKh0EgLFz4A+574DPZHCXbm72wXAOJcl0xCHNaKhW1WQVcYZuNk75hgXdZgbIkDRq9QyNMVpqmVxQaRvhiqd3bvfwtuwyUpyTEkL0tC1mcBlX2m15QZdL3fpRjvkhC9A7698SgCE+hNHQDU/IVrJ0CXePGnCTUh9SJUn+pmxBVmCq0KCTOrNmxXjoejR6r7Cqiq8PGdxbTrPpkDeGGmUv2O9kSlh6qMUInvWGtuwvmc8N5RIE+D2Q+WxSRHJYHWjMNC7JMEghpd2nGmV4N9+A292o3fMUTsKNClz8KsWsOOBsk5Pq0Zv5FUrZq/XvCcDIp/LQuewXxlLW2cqoJy/tnhRmKQAlR5eZF0Kjyz/drOPnCPiPodU8nMIy6uqKD+TnNgnVsmK1RtC3Y4CtCY4HJABJaNnMM0HFvWk8lP7fs3GeA3GleyXtp7BlC4Ree9AFpHGp4L8lSV9nJREWu83DDkuYVldStF0jmox+y2H7vAX4QwH8lHP042W1xECJftmsvQ08eCpck+mITR9XO4qfFKlzySjG1oCrt1E42Wvg2fJejhxyMsAYbViBY44crEE5yQWyqXEoiYnSIryIljHuHPEfDIGr8myfWbFQ9XtLlWFwuWk3JkITEy9ylVFBo0fmpAM1tptlhCAUrtdcAjhIP8mRvbc+LQAZwwCuJMy+26fod39cw9F7G2NbV1mftG8A51kX+mDETb6gB6a/yOWn96Cm2fc9gpi5OSbxej22DahpxsN71Kd1oBEvpNtFwSr5DMbUJgOsmTgC1puD4D2FtwIgCwq68Q3a9khVUsGz/P1dlkARYVQEJiXpFRszc0/EYGAEwVsUv6qOMvtLALs1tG+/s/+fFgDZPTflJDIW/Fsifrkqw3IpL7eQYdGOAR7xVkAuIaeOay6XiK5rACB2OZfUCCLBfmYejDbR3mXnqh1uagi5LfbbaFxMaRuMFjVgCMqsezCGvp1R4xFeKaFli0gtyL1UbMzkUpICCiD0dxlhA1mBBMjKXRR7zJuSMgu3REB2VsPa2YQhx7d3//kYgPVZARi6MAwdKf8agOIn63KAjIYz9AwcaFIgr0N/y4dVz9LBzDQDMfAQ54WgDhSy7oOfYGLozeCg6nBjE27NABz77AtgVu5i6VC9dmMDiPvJaGwgUeGNHeDcSvkbdgd/OCvD+LxvRgwqQ0yeszCaUUgAKSouBAI7BaezIwJXzG6TNNRRP0Mk/2J9VgC+AyjrRndtus8V2z5YZ2M6ZEwybB2HQ352r3D2QE/OuFUL8iRAbSdS0CnfmpzTegPeYJZJ552uQG56L5GHB3QnJIWYLaC7TpGd/RONNctuQPM62wYivm35ddtziPQ4Zx4Nirc2FwEya5bm3kERb4DqKIJhOA5+Sscc0map1ZMaerWqkwca7jfVw2cFUFOGYgoKDwjX2icLbu8vJLAxfloyWPjdsKtGKsMYS0YDVhX1VGirIFnMrAqNudostP0u8bSmENmRjgZwVzKEKJQkEMBFWy5jUDgzmiCZU8vQhAWGVX/oO3+2CCR9HC0sW7pNv+CFKOnLiSWHbY2+aQdKxJkepUlrzL5m9doEyO43YgDWp40w0N0JTjEdqbEg1/542TwvU5ESKMRLucjZLwqCAVVyU/5QK8xAdvrRbtY86K0KvG/GWVxS1v7mLTdmOWR3w4w9hwFFHHhLqdgd0PXSM8A7sLB5pyRBWDZq+lERrSU9FKiWUs5j/kkBmbyuzYPG6wLjNhB2OH9hNN6mMewtAfRM/9dv7sVvoaX87pN/uHCbgeTZdPiJt9KUtYWAFg5vMvx7L9o5ZtYbmymR3OQcKm7wUANNYHgZnY8KSbuEsWfo9VyQXwrbKL3THi3EHLlNfhh57sHY4Bq2Jg/03rLeoXi27PnF5qFgOChAYZMtZpEVKNdwqzweWvYMmajW43lG/tPrdwQwP9dq9JllbkVWeBkBB3DactnZTnuzYxRGDmXC485BrrdDRDruis8aSYNR4CQcILUMxUYS0bAxA1nlBCFiJiFHq+KBKYEXxtQQWaFq/amLdrbG/V0ZXMrIpstWUhqidOesg8LUlI9XQCEV1GtePX02uP/bmuFfjIRfLnInKRUH1sHWMai79rVS9sIeeua04WZi7mAqNGIyb8AS0WQW5Zo6CQCGdyq/Tp6KJGG00kaisrhEwADFLwKAHg5eOfkLaPaI7uRbq/EjVSRNv1TSkoYHBNzai27Bxdv21GAhiyuDzVBG7NTVfl9H3EkAFLHjoOyCqSxUpuhtgBFRilc7qM0nb6QwF7IYIAu84kA5NZbzafSmzDTlbvrEoBR9kZNelAYsi7GOz+ZlsnJOli4laNicKSSpbWmkJQJaIX5yD8BZZLPT9tTq9/rahDmDDsZi8q55+z0XlHUvATAPCaIrszUwBLawy+h25j8Z7CrUyLqnfVHRl3R8rN3gWMoRMlhBIXft3oidlsSkOHY0BU/SXfhD9DQcMN/tUnBZTquvM+XJfKv2nI6uCWza6h+u6Z0x4aflnvBH378oXdowOzpV9jL972ThznU3AcjA6ezeFLwnP2RQtYkKm6znjNmVARpCTTHv2kzqAalDjTjoXygAeO7eKHf8pLoc9fGRgBVi5HvShgcpp+w6wwXMcAMFJ6NAZkJhG4NqdOra/L6MxE+nU3+y6HTNRs+h2xV/Lwmx1v0EMP0+A2EjKc0DqLtGOyiX2PgLdSkU+3kFZXJuGM2QkZsYBtvxmZxCZYP0AYOrWKY1pp4J4uoIydO/Uum8kBiTTfFnw8+xdqoMOs3I8CIabpQe+NlB/3AVQAOYoYHu4fYnwdH9BKCNz9KbY1Ym6nW8vYerzHWd4LA5aoqj+jaKolNZ0EC/emnwdxilq86boly2D8AsfFDQWYLxPSlQpvNdO5zgCPJu27viM5nLMQcU0oxPRavUVOYrLbtLrPzbAsjyixiBQqj+j1JkdxSAlakKcCQOtLXE9IWugFyiUcqewT6jM25WWpAmKbchl7PIrXcRMA0QWqbNg0sCugrMR+nHIjCOMhAJr2cwtmathAH+M+kpGeGevc10xmxIXuA5Bp5hMjH7GbSCp8WcYJPs+TjxF+TxH6w7CsDKSOkIcJ8X+qpSqAwAWw9upYc59y71M0aIsxp6OLS6FSR7SJzKopFqkAAYBn1NAQaqBMYlNDG7A2wsLa4CaXxgYsFIyBMIMg+GFKff6va96U7o1uhqFGA5PgMasefOgPqC0RqfGkr9cd1TANZONoABwqV3crpb74fuNKwQEodCNZ1wuaBlk+8Jwnlj0qMGmOil/NveaHuBW1B6n/HIYmXgooskSwCwEUSkgVlBg+wbZcGM40LJh9rkHMn/Dc/cJXYh+Iuuuo+DBEUJCmKMvSCeLfrDfa5R6od1VwHQlCN9M4wFh/SE6ZNoo+a9Vi74kJPRZia3o1gW8BpAOg8gdyOtVzrNpJNmIU89pJmgCqaQMnS6Z9gMQcpgKBoZ/MWMinTZwaqoaiU1JOV6QgmaGwvG/ug2NbDg1/f15+5Tyv2J5C2ki8Iw/2YW+mndVQCWfgb1eLcAdbPhhtLo3zdsP68LEpPzC44gUzfrVq9X/CWDHOWCMMGkWM5OowEO9xwbKQgYCcBzvNECmSmyDXBkt3hyvrQGN1IHPzmE7KMVuYwc2b4rY657OdomX6A12YdmYGvPb32UZ4o0jtKf1kjuKwDSop00vkwZwfHWj5JpE3GRo6VALTRf5OPJQKe+OUacqCKnQY+ajeUxrlWH4Ug23QSm7YOigQrAcgXPbwdqGweKn5SiB47vpbYgic+Ztr87eNa+LHDNAeXnUX/cWtkJ5/2LZ6nbH4Rga91XAOSE/EFjA9nuiA6SB3RLil53g4v0NwBDd7Bu5OwH5o6qawAFtY029yNy+HVUKbbIaifcSwKAbJM0ugSyyrQIH4DQGbnuLIzF1/c09rCRcSkz2FgN6ZqS1yuWPZlvvZ89viIY0NH4szaF4+4CoOA7aloatO83Gnmq2yp5x8BgInSclU5sz/A13MXQZsQcQG1KZCIckUEBruXAEOjM818CgFTmtUCVETbptGF4IvaiI9Ef9s6AYVtQdsBs6kvjvIWvx1AXEos5WzlnLzmIqfR8Bhjog3VvAUjPJyNAnFYCli+tD77RiRCSk0ZmuzPstVTfi8xwB6exS8noO1YpCAp1FXuNizyTrvFKhBVJ1BS6COT33HbQ2FO8IG0Jj1+8jfHKhALxGHk546SLUEPj++xJ1/DNVvOy6Q9ycE/r3gLADusKjL3KWSRFSiHdUyDIRREm+Pf7TW48BC9bp2FBWw+lvE539Dr7jIzJ/MrrNLpdGYSI8le4BcI0nMcopUkzF/xlITxt4WIoPO9EfdvtBL7vGocPAOcY0NS7H0B26CvlwbsLQJofLojEWOqxAz+XatnkhucbPXAMFdw8Zd+jstM2ITyLY+AYAKdDYRgDe0Nh7eltSv8MwBzJaEh9pLA6ielJcRmk5VResM+W13Qx/eR4GiVnRWQ84S+GXervF2FervsLgFFn7R5gR4crm5NKHQqRag5yEFuWwUs7Q9S4MikbMHg64h4B+s/Y2TET1UpGMtAYFH0jPqd2lu6Srqg3Gnz4KEC4SsHDZHw582/Z2GR5YZmQa9ro0zjGT5D3YJlMn52U+GDdXwBHoUmOyRlpb2c+Z5X7XWAAUrTf0pZ6kDEGA2cv8K5lHHyFWFyGKEWhO4BVjvGJ2V1KTUGutL7COUKstkDUpKWy3+BswJnx8T2uJAAd7bcgwoXP5ycO5pjG9vSlT/8NBCBfU9FW36TZ+x52HdEo9Q5YpdwY7VGRxxKkf+R9AzNPRSCtpmgqLBEUqynVTlWhLcJTmCXQQ7RQzDYgdFasnE66+AZpVgNDKgVXXwcFlCnh1wIxpZpuf0tz+3q17ZcMDb9Y30EAcumbbr28S0VmCfrgOJgOyHRoKUZmmisXByrQ5jMxVaRPNfQ0Cr258hCHgi8FWACoG00i/r6ewXrVR2t4kA3E/HxCKkdPX7Z9xZzkm/dDcyR4geNnjOTT9NOnpyE/Wt9BAEzO1H270dvpkiLVo9S6Z6rCBfgO+Z0RgSRI27bWdvlCKVRIzQt0kHKYJAF4T/SQVNIVOY2YAAk5EIYCAmn1OesFKTmyp7uNH6vRhxCgLjkaDCbFlgHz9Z90AQ6ot754/r+JAOj+NCbD0KVZaMzN0P+0CJXFBhSN4t9Serq17t0sm3zRDrcSHVoSm4537ElmHDtcdIFOBkW5pDLP1H7hrJHrHy4uD8poitocVK+kIYB3Z+Cv5hLiGQQjx/BOjnlRyZKx9V8IwK71PQRwnO0foCXCbVeZTvH4NlHO+Fbg9PVBzqWbhGHJyAN85kfDLNp0Oagdvos0wUszIGQbGQA0uUpLkWHgaiTDS+MVTxaVBpJcXGwSp1vEmN9QfEdfxbse0MqozsWb9tX1TQQwVhtO8nUA1ADMRvEMwpcyFYYyH9lAKow7RNsNHASJKCu2dQzGSx45wEao4y69HvIZVVmKLiPReKbtFZbdXpLpshoZ6F3uJ6Tr8kDxROGYt5ra+2s2A/H/C5/8mwjgZANnQqXS9ZClUnZyb/JAh9EIRICz5gg7COFIYKYCoGh0e4Grz+tP0j0cWoiZJ0HvRa4uyTh//mtaG94POztHbZBqKRKT7eal0scllmkzGV9qUL7WdxHAsVrs97gNl3wOKR7pBjlPz+CqwOIMTCWsYxDHjb6F0RQBtwOCZaqZEdEd2dv57tmy0f4i8+4ccUUNZXmdDVqIN4NWHYYPhoIh9lBIsr8GI3nVjmwIjl91QNf6NgI4JZCTl58p59LHEbZS6bY60ka3HOMDkdQX1B0KGXxrQF7qqN8iEUHZZQMaSR9vnSfS/IqWg072ShLJICe0TJIBXqQFsb3K71ATgG6IMmN9Ysubb/5eq/6d8/+dBHCODchFBwC0RRdGBoCExpNI8zGjIcA/6Nz36vp0t0wbiscaQuCdiAeK7/Bw2FwfdH4H85OnrRzVaERhV48sMCzAJnqZF437vodh5ebDLMD80dBWQzD9K+f/ewlgjbr12DLziJ5d3SsVl0miOnYpIEiZRsug3mewTAb+UJWn5LqCokQNJmIK9hsGQD6Q91etd62psIzrlWA21t/wTTfrHgVnjIILnueCRPxxiy9HKWx/rVH8WwkAXQMn+0gxwlrrJAEpBPjDkcBAAq5XbTkSAKnc9Z6Z3Wu7jHPe5b/X2QkF0n5bWbSeGG5Pr7EVBkMh/D0ugnt4jROAguCB/oBGeLn7y44P/8cV4B/X9xKADXPfSKwVkFl3BU8Q7NH0DJUGcSmQtiXkvU50iDxUqSQfMlDyio1B1BizKMqaFGGyJf8nmYX3cpag7z4l8KDqS5HYuF/5n6vIM4zQYKEjDpmH38Di+OX6ZgI4DEJu8/J+fNAWu1p0I5zCXqn8jaQ13jlopFuiUj8To1kZ7r26bTSqcIUAjURRM/cYwhty8t5efQ0de4vXjg7gMX05j/wcr35r9mmtrD/Pz/3m+m4CAH7kZhgezXuIuyjCgx2haHjb6tDJzzswEjcHm3pdwLsHEimgyvTsSHb2aX7mAA3HQaBSnxyehWHTX1Xag2Eqw+szD9rg57OKuejj9Y1ZjjHTX3I/r/X9BLD8UQ9F+w6PUmkuyTFMbsCB1J2f3UkGmTHpkfwBH4CHgxNcjeSybTqtoE1xgCIJ6OuzlDuMTkuHG+w+VtSGCMxHMi7Vmh3+zxv9srA/+GkI3cL2YXT8Z+sbCmB17To5lMlVXMzqIon7wJR1pNg4UzJwW590HerRdfyZ14iOIfaYyUVUnXrA8yAu084SXlmgleIL+2mtGMlyoeASF4PyPYz1Bo1Da/Ww1Paw3ENjyOZvqh/WdxQA0AI2rT6a1H6kOQsg9eJhWHURv53Bl96lOhQRBFndHYojGjRdSM2FWokjdOa7jV8Yn4HczyJxvIcniWuq7Xdk8uZhuupFnevc8tLpmv96+vPN+p4CAOYHSKs+vVzPTTEvA+xUXQyXGurA0KjB7IEMpweWnb0d9PjvpQT9DLDgyTvzgwYJtgiZuuLczdHhovj48nEo1BRIG57Uz7n7E1Q4MxgZlN/tb3o/1/qmAqBwaHExOYFMcwPAtmTRQBFyFKxSyk4hGxCkBcoy6Z7oUofOXrLQfgJ0POlAL+iTiTFIWAK4dQkOqL1nY9WSjoK1snqH/YWTBT3FMIcsQO5ZKqjrJv519cP6rgI4zrg4gDK9RYbGjNDTl7zL8XdpD3so0WIAnfxKxEvhTNEATcs6+qkkUv0FnED/qr0Qbl1dn96HgmHyz/SYllleZBeM87u3Cfeo7kEmKvx7wdfL9Y0FcKxLEICs3HAtm0LdtjsompovbTNO2xoghky9ecUKehwq4QLveanaW3NtfPD71QuazlPcW5FlOfHfiweU1I+zQ66Mq+o12P5RgNnxXy3+frC+swBAGLAh6WlEvrQ4SEtEb7CRnfqu35L0SQiyoFnxGChaRy3+JlVUi/waoFBs9ghSLNvtCtUrif9mbbj6XQ9YmaIDym6ru27JCNwnbLiFGp+kw/iD9b0FcICaAaRcL7s0dmoDWKYg2wv7UqHXDYz8JAPdHa5/hv/Xmrp2skI1BmMNgxigUA+e1WyHBxZO+ku3Cjq/AYLx+Yo4n4eVMId00Dr9C2Xln1nfXAAXwpP8D7sFScc+G1I/SSN65GBS9WUL8jFhjIYEMTPVVM/2Q+pf2AOiAFkROqSvFml9YzOwYcM6p/HLvmHYt2MwlAEuz23/exAZ76xvLwDjbMUUzA5GCUi38kG3hZW9O2Zc/R4bDW9BJtko/MgwR+cXgaUVEBuDFwnVUxS/kZaoOEsdxPbjsJ5p6yai7gVvd699JEb59EJ/3fV/tf4DArD8723xxNUAWIc8GLpRdDd8kRM0aByq0IjKYhNsAd+B+w7QqmX+B0ql06AoAy2/arUB9d4s+ZPkbkKgPqa1cY1CyVf3Aryuf1D5rPWfEIDZAkQgC2roA8weDQCGFSaDEGT9tkVaOwB0PCr6iAZdI/qWPZYbC6CqjWBEfUtOU6UsAzgIxV+ZC1mX0XOTyZ3yOsuE+XxP//T2/2cEQG55kUTFAtIPzemyp+T5I8poZzRM/rr0uv4dYZTuxGJWiempSKGYoAotuqUw2AGpdCEV1ELPKa9Wk2MUxV29AsuX/om464f1nxEAGmVNsUMz4pkUIpDNdDoAGLA5R086XVbwtirMrSYFj7e/kYarnP4IdVyx1jfnQD2AIlXxVjdW+EaDlu4Y8dw/f/ht/YcEcNDZ8AJpbF/uUaPr8KRIv9EdFD3DpgyHHSMXqgKJOq9i5siIUZTvRPun22XMyTIcfSgq6x3SdUUPhB5/qePhM+u/JQAjA7jQHBwo5kZFDt4ATK3bLSYyPDXvzLniDXWswaS2KOE5ABGdjwsSThZjVMVo/CHD26bcKRzV/GPX1j+4/msCYPViwJIGtsrcfMoF3a9TnRWrwZvOPHuCoceacYEdKJB8A7yYjFEamIeUIAQasQ0QDxoQclt6O4T3j6//ogAOSyEvXBPw552CX/k6CnC1sqGzygxQZkneL2wBeZyAQrGCLkCG9LhSZZTeH8zN6Oy7+Ieg5F9a/1EB2AKb5gUIK0UteTqAt24J/p9Mn0mGrHaXjOj8342nlrQDoFmyt8wiUX/zb0v3/9r6LwvA1pBr6S+OO7h1FAAUo4PUl7brJcOKbaEzQ3rUYcCpazUkY0jaIDO+2/v/zwtgLZIN0JFfeKovkGYARXfUjyne2zQSAMMnKaHz/67J/XH9jwiAZfAajbEXGkxsbS9FsZHC1o/g5sty4HWOOyj9N+t/SADvLBAfmPZIECh6EtnE0rIP9z31L9f/tgBerFENbqPew9P52fp/I4Dvuh4CuPN6CODO6yGAO6+HAO68HgK483oI4M7rIYA7r4cA7rweArjzegjgzushgDuvhwDuvB4CuPN6CODO6yGAO6+HAO68HgK483oI4M7rIYA7r4cA7rweArjzegjgzushgDuvhwDuvB4CuPN6CODO6yGAO6+HAO68HgK483oI4M7rIYA7ry8IYH5xzGS2lzBU78DE/79Yfy4A76AaPOAe/bMnSBeXSwcZYPwalG0ap0X8EobG7//2SP/oPNMfCwAi91HYNQO46ycKZ19DhwuLv9k/DIltjuc53GmMduMJBLU5Xabu5nqK9d1zXU9nv93dWBxtDKc+iQtwH/v7hDe3V356pfMpn5gy7IuXb2Zcv/bDGzxfpbvzFU/ypfMznf/1r44Xf+EG8Llz1H+GhBGBdZxRf/OQC34MCIn05r2P+n9wFwLG8IHH6+bOswXm8zH2EMFNnT74Cx576kvIyqF712/kzcU5ed3i4gXimVwIbJHegS9wn4Z9SJgm3+ZBN9YWhnDBjsGpwRu6XqJ5sCSOCc7u9TNzvUHgPXTKot4d5FnBVVAE9UF0nPQfV7a76L8IaPZFAUB1mZKxahV/HFWfC5noZgx7kG0K+eDvcdF+8/Ox8O+nTZiLs67o2WKGVHt9o4YlYh7TznUPBFNYT3VZoBTtrfAKnNXmONGh8Lv2O3pML/gERM9TS1Dz6frpSLt5/vp8eoNTb7CvV7EbwPeqPmBen3dq84ce0ovPLw79fVEAtuMJQQTn9N4yIAD6z3hlkw+A/XLo7NScNFKcabbniYfdBMDn4VGdvniBRBqMkh7XbtjHtt/Q6zb3/DZ4dT3UdYG4Cc2OdgvD5MRz8eOGIGErnG/InwLoOuz7sKe+rNA0pGnP/+0neHccBX6GD2bvvdsb6y+e+Q/XF2zAoi21LZiuDt4vu3FpJa6BnWUkxRs+eRftF/VBngXQ+aRPAijjSWMjgH4KwO7MXL/e/fP74GcQgE4+Gnvtmg40/MM8ZuamxYuUNtTzwpwCCHnafTIBXAwxzXb5pQC4m7x8XqfrugH2zPeis/W5t4hfggB8HcmxW6X4JwEEKeN63vrnG6DHe7c9eBIA+A2nAPjuaNfx9M0oaeHlsTMHjBUo6ZLS9TN2A3gFsOLmeQOOvPMO9Hs8Vtt4IkV9ewNCHvW6Aa/eYLWXgwlobwinDdRP1mfiW/q1oh8/n3mGP78Gfy6AFGI0kPeq81ldtE1vuaDieQgTConsAQ4J4IMXMRqqKZ8IqeuB6LN5e/ijMnf+CaoQLoaJEV6o89nD3wyc7UKmtx+p6xU6sKHrKQ7+xVOM5DkO1T/99AGHLRy3Fxyf7HSGtiSNF29Ib8FYY9arJAC02npXgF4W+1bI+jxtPfP4ArbiX46E+xjvAfR/ccVvE6SVvw7i+pcFEP37BKRfW28Zl++3/jTo/Hg9ckF3Xg8B3Hk9BHDn9RDAnddDAHdeDwHceT0EcOf1EMCd10MAb9YcPybX3ntsrRewix/m5H6erHsI4M0qgH4bvbxVHCwGH83gRmvvcy7q+bMcMUsn22dSyH09Pvpcv31W0GBFbNTd3q+hPwTwZuWmjW51lAKV0hLAsVjIepm16rv63myLbLLNXlqvcKIjC35Av1x7LQUuArikh36y9qLH6nsSeAjgzWK7JkwClSLxMAGchd+pb+gyNG1xG/UUQB2twJUIsY0kIbF1PcTXHXTwXqxKMWpr+V0usocA3qwGyTl72NDviwyr1lWR70drU7ej608YamC86jARj/XV5DJ0yWd2UHlhZKo0Jkhu/Mq7DRkPAfx0zbd/LRsg5V/nW/t7futqmJptvvzWR31UDwGs1cZ7IN7twtl91XxiSsU4Zt54R2098PTD65d1MRan7kWO/qp68xDAWhW1rv9Ld3Sq0voT4kO0CmqkyOg2uG8PfZEG/UrS8SOPUuFEbzLMKCyosIaep6CWZI4pacoCDz2RcdQUPKn8Cj35IQBb2l2spDacra5GdUuvjIwsm9ZGLtjRjkzwSaVeoMrS3mIt8JrqEgAPVLPhtcignwLQdzJPKTljx1++8kMAtibnXjs8j6wNxovRuYbqXOdYf8r5tAfZzkonnu16s91vXAJYQdlq7W7WRusRbbie1B5Fghx9ng4j/hDAOwvz2U87OghwLcYdA2I9yCkngdRqazSTOoxzeECDYn6TKf4JQYF+qmZ+05q+Dm7L7Ct6s1eY45U1fgjgg0XX5+teh+tfZ8vry581owAB90uvaZqM+vgwj2HrIYAPVsPOSodLaUBMPE2v8IWpH32zzUV4i6yk7uucZVrwbKSV/FUOU2Xjp/27DwF8sKolfwhpG7kFyaEQgcmCjowllcEw83D+cFGs1s6QudisAwmLJEepjp92xD8E8MHCXpa19RWvqA7jv0UA3XILljE6Z0zk3kDFd7r6xRIYpItknEd7COCPFuMG+O/wIU77E4OMMT5W43fDSvS15diA8+Fh3XdrpMCGF8ZDAP/oemuPj+ON7X7UA773egjgzushgDuvhwDuvB4CuPN6CODO6/8AxJkGwqUNFSwAAAAASUVORK5CYII=" name="Octopus" align="bottom" width="384" height="384" border="0"></font></p>
<p lang="en-US" align="left" style="margin-left: 1.27cm; margin-right: 2.54cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">By
explaining why invertebrates are unable to try out higher levels of
neurological organization, we also explain why vertebrates do.
Deuterostome development coordinates lower level organisms in a way
that can set up a segmented neural tube separate from the rest of the
body so that it can then use all its powers of coordination to set up
the nervous system and only later connect it with the body (using its
parallel set of segmented 2-D gradients). </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">Vertebrates
also differ from invertebrates, of course, in having generally larger
and more powerful bodies. That has not been explained. Nor will we
try to explain it, except to suggest that, since their size and power
are mainly a matter of having an internal skeleton, rather than an
external skeleton (as in insects) or no skeleton at all (as in the
octopus), and since the vertebras are also determined as a separate
unit running the whole length of the body (the notochord) in the same
process of gastrulation and segmentation that determines the body and
the neural tube (and the coelom, from which the internal organs
come), it would not be surprising if the same cause were responsible
for this other difference from invertebrates as well.</font></font></font></p>
<p lang="en-US" align="left" style="margin-left: 1.27cm; margin-right: 2.54cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt"><font color="#993366"><font face="Verdana, sans-serif"><b>T<img src="data:image/png;base64,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" name="TtsOtkCRS05_06" align="right" hspace="5" width="275" height="30" border="0">he
structure of the non-mammalian vertebrate brain. </b></font></font>In
the non-mammalian vertebrate brain, the three systems serving the
main subfunctions of the animal behavior guidance system are located
in three anatomically distinct parts of vertebrate brains. It is
relevant to take account of this structure, because shifting the
sensory input and behavioral output systems to the part of the brain
that served only the goal selection subfunction in non-mammalian
vertebrates is the random variation that will try out the higher
level of neurological organization found in the mammalian brain. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 1.27cm; margin-right: 2.54cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt"><font face="Verdana, sans-serif">B<img src="data:image/png;base64,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" name="TtsOtkCRS05_07" align="right" hspace="5" width="125" height="20" border="0">asic
structure. </font>In the non-mammalian brain, the major systems and
their functions are obvious, given the function of the animal
behavior guidance system (and its three subfunctions). The brain
itself is one of two main components of the nervous system set up in
the neural tube. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">The
other component is the spinal chord. It is the entire nervous system
of somatosensory chordates (represented by <i>Amphioxus</i>) from
which vertebrates evolved. For vertebrates, the spinal chord serves
mainly to connect the brain with the rest of the body. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><img src="data:image/png;base64,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" name="NMBrainParts" align="bottom" width="450" height="286" border="0"></font></p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">In
the brain's segment of the neural tube, embryological development
results in three, anatomically distinct parts: just above (rostral
to) the spinal chord is the <i>hindbrain</i>, followed by the
<i>midbrain</i>, and finally (at the rostral-most end) the <i>forebrain</i>.
These three units can be explained by the three subfunctions that any
system that would choose among different kinds of behavior must have.
Any behavior guidance system, as we have seen, must register input
from the world, select from among incompatible kinds of behavior, and
generate the kind of behavior chosen. That holds for the vertebrate
brain. These three subfunctions account for the kinds of neural
connections found in the hindbrain, midbrain and forebrain, as a
brief sketch of their connections will confirm. (See the diagram of
the main parts of the non-mammalian brain.)</font></font></font></p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">Furthermore,
the neural connections among these sub-systems are just what would be
expected of an animal behavior guidance system with an animal system
of representation, that is, with input from the bodily condition
being combined with telesensory input to construct an animal
representation of the object that can guide locomotion in relation to
distant objects.</font></font></font></p>
<p lang="en-US" align="left" style="margin-left: 1.27cm; margin-right: 2.54cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt"><i><b>Hindbrains
behavioral output system.</b></i> The hindbrain is responsible for
<i>motor output </i>to the body. In order to guide locomotion by
telesensory input, the hindbrain takes over control of local reflexes
in all segments of the original neural tube (as in <i>Amphioxus</i>),
and thus, the <i>somatosensory input</i> that triggered those local
reflexes is also passed toward the head (rostrally) and registered in
the hindbrain. (See diagram of the behavioral output system.) </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 3.81cm; margin-right: 2.03cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><img 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etQcUHp2OEY42p8GapycLrrE6WuYpGn7lWoGGEbZJPWzLf6IlR0xFTrklg91/J7UN0FqmaeXbHegqoCapoP5IW6Cy9BRcRiSn1K7VEXapnfgaoAar4nqFGGK69ARQZnOqlCRa568wZUNKn5vnjTue2aQy9AhUTgphpVs1/2aR1UybtM1bzKyz97MIEJ7kLRq2VQwRe3a7pEkNIz0CoorJJnq6Ay4Kcmqqzsi4D6EyGr1VAlf8uoV+3KpCzqDe3eaqh+/8KPPkFJdepUFQmrtVF1yvKkLOYS5eMqqPywQhHVDqQErJZBZcNfZnF/p6WzrxJ0A7cKl9U6qC7RnE990hNaunWFOQ5cDZXaH/XYhxS3pV4NlZpsRIrJahFUhvjcLFuR4vWr70C15NAvEgarNVCBPyTs/9qo/9ciMZv1SXGagTVQRQsUbp3iYtWmMEWl4+ZAqQ+D1kHl/vhyQOX+tQgs+Q6VKvdyYVS/X1YJVSj5Wgu0BamxWgVV+Bu21i2td3VW8UP+qr4Ok7wJjA4XQZWJglPboUpZJYcPRrWflKvVcFSfT1tLdFilh0NRfXBh5T2oZqEiKAloHVYzUNFQBMQOquRwBCoGCQ6uw2o0Kn5/VIF1UA1GJRrolWG9kVWhBdRGJRqQuxxEpjeiKlQrZVRyUrZQEXWfgtlDZqGSNH5pPuzBjy5HWp25Vyahag+OKivpDG4pmYdKkjjNizyk0+aE07UjrAVRfb7/arnlvsV4tmQVHYxBJatUGSr0KZ0GH/LauhWsWbVKkDZHhTWCQucQDbuxWg8VmjiPqsw5HMperNbrq5BKhWrAvKOelqbsb8Vq2rxKkpilgUBlEFw0kJzVJxOGx1NEhKrda1GRCVQ1VgYI2zi4lkNaC9gkVCJWTagCopRV2fT3YpnSIrxmoWKw+mQfkvzpqfh1FoBPzKpiuEpjFVrTUNVXCD5FVhVUcUWCrGpGmRBupyXbBOlzslLQ/1d8r4Hnzs4BB9NXxvjDskngEwfBnbRkW4v9HhYK+gnOyFFlwz5/go5rXE+48b8L1mc2qsKN+bG+WnFRWdg7JVeuM2RQI0qWV6nirOz0KkK3f8NQUY3+BywpsZYrvk663/lcqoLqcuBzjf+kk/T5rO5AFYxFxf0A/TgqTMvlIrZI8WOFZ4M91OfXTQrLNhtWof2bhcrZ/ED9uR0qLDVUeD4Y5qtKycM+l9WdqJzJD2jz3MdPZoqMyjXpxa6QqOIYy5s/XM9QKZGagyqx6msYsjBH5Dd/8TIGi9ofKyRf3ks2149pFevDRRW3UvpehM/uVx5LKu8noEpT4aiQ8LYHfBar7OaKrgZUocMf4hVw45OfKoXDXQmDvaQJN0hOTFt7vOegypuB6HKGapRXWLVKajs9irtcNckZdzrPimtrL9kMVnmLHV+fVqtsjsrGlQrPFC74l1vEsL6okGz9HqMaP0DUTRQO5/VVKCp4iW78rIVf6Tbg9E/+WOXZNFxOPSFEzUBynCSYNAK0GKqrmKXiukv+JYEmPv+7lqIa0lqlcJRR5c3fbajyvuqaY5UKG/VT0cbvbaiQUxq46qRuQQXb2eK8NO6oom3f+FLadAwZA1BaFWBhN0GWaBaqvFJVUcX+Z09TwBqXDiWHtwv5pR6baHXNUs1BFfsC5lWF2UHqP/YsxdWPJQBHocpGL5g3LYrzEQWmayiqr8m8Nc97Focs6bETT9M1wKyncIelmLZLWW07KyapMahAd+tQ4frzqQrMifhaMBRy3YKquYvMsxF6aFStZtPQ5TdN/hGkNz5ji83fmXtQNbFCikppiVF9sp9Sq3SdSIxQNjTeg3UTKjkrLFSkkqRWfeIfYqscV5+LSsoKCxitQguVoNEajsrmi4IK8r9t5iQSmCZAUQrSvuoD/hfZZLv4IT47h8iM/Lfl34dKwIqqUmT2flRuOMBOT3x2DlH5TOlikrRtLFYUbhG5rGSN359kI8CP+8eyFUYRXFTEsD04RDlavJqkbRmLlYV/N/L6a8zDitdgv6pdvopY5UjgjEKlvgwouRvrptEOo9qJ9KNyipjlKBwV9chQKbP6adNChUKpkkKmwOBJZdIOopbZOhQPaT1G1lf1rcll8hGhKrNCg8e6tZDVirYy8vrcyjGhx3/3TeKLHithG19dgm+pUnYyqtxFjh75m9bRx2VaJajhD3ILewXYJZ6nasu1nPkh4wzy1d9mX6jISATq6ENFesP1ciIqzP2anra/XRDtFXfv+fn8fF9SoyU/2C6qvQyhpgW/ocp6Wv/IRMhGtjkcSTO3olIBNQ8VvvBXRNX810DiVc1GWkg+OaqqcYlrU1AlNxn6MdXTDir1hZpeFATPIvDoA6Wciq0TmVe1tRjhsddYkD72438iq43GudUhpd3iWt5CUjEq7JU1SSK+SnQN0KK3O4Ih51LKlZhwS40Iqj5QeExrjjJSSFB9H9opgZDXCBIVA0OsqGoq6PC3Q7Qw7JaOekGRvnButlJZmata6PufUFdY+oBibq2qKeIkutzz1eqTkVIAVe03GyhV1X6vcyC1j0rnorIXLccqQ6Xzx7bZ4ZI0G6Ra/OVcFcOctJkdzWEFT7z+lJQxShv2CjpQtQYTgYYOULzBOm8uzUlUuINdH7U0qi7p4mQ5qJi6ewdt7u58KKpeTraOij+X7nDChgZ/D1TSwCuAqvZVgrm03Dbq/AaoRGMRFUo/86URoMSAPDxw3N6jR8MXgVrJwFGPk9UdrGMjYFo2RQVjX+IgqHhc8+VaJQu+TLZElZYTL7c+J3v6KqHa3GVwpvvmrZiv7AKzrWmFZ3lU6dmkOdRH5M3XNuzZe5Q6/uyKaiiky3z92YopU2BVPfNRjcb0Nc94DEZvYWmSnltQkdm0RmKtD0Jj5VCR5VFhwwo86O3BxM23P7OelUNF1kaVTKX8Ef5lgUK4GnB1f70AlkNDFkdFMEhizYYggdX6yGZm4i2o8GcwindxVXg5+p6uBQaawoNkWh8VuhjRzilWUDLf+yC0M/AmVKj0cIIaaPP9z6z/LLwelYYUWal8veCLquV+OqhSKcRQ6ZsgaLdaF8M6paFWLFis5HFpEMK4GirbRksjpoMEGSjMQUWufIz4A3582QpVuDRYJqGSid59qvOsJyrTkRGqDyq2TEN2UKnJaFwPbwCnsrpkECxKF/U6rDm89kblRBcXqUflJXPNohndG1lZ7oorTw9xiXhz2UElFo26Vcze/pI5DVEN7t2s/qQHVi0v/jqsg6pdmmoXJ4/4zWWqohvbRVjJafFSo6/D2hfVIqzYu1eS0T6Gat7ESjmyC6H6E2yqjApPHToF3hXVaqw4tPi61F7c0yTqpqttYHJ9WtnbCXm5F5W+VFgZC/BsVvCnoSqzMuDnQXW7lFg5VMb/7UbXJBpz/enN3z9/dSHRR+X/JqwBZxIbuEl4tiNMhRj7WvX9F37YKxC/M9d1s1i9G1Crov7gOlO3kabo8IpmhaMKJ/3rGIw7WEieiKrC6vofReUtr1al7BhUvg9w7b+BHQLoEaJTcaYrF0wqdIG84n8ZA11zvdR1HNKuIgNrlYHtvyu89e2Pu4dd1+CSGZ/bp5P7WGu8lmLAlLGo0s7bJGis7yBCA5SiamuMyqwWqy88mY0qi7+zr4yqXrFwxxeWcYN11xNk/U948xXsyELHEX0IXVaLI6Jci5N64BQYiIzV6nF4NCpRxVo+DM9GJYG1fBiejoq/ltc0yJw5knw8Ki6slnFLW7ZWeQEqHqwmVFND9wpUDFYtQQiLZFMawnegqsNqQhVWYGa0hG9BVYPVhur3c9J+yXtQFQfuTTEIdcrEJ8fIm1AValZjV+V3u4HaYeF8FyoKVlcI0syj4vk2VDisjhBogy9aehkq13IN7F/GRPSNqDwsV3L1CAwJ6TtRJbD0IzAipm9FZUE7OCSumZV+le9FZUPdGhACc+kPlro1vhoVgKWOK3vKoNfC21ENhKU9ij+onGjzwhT1TbUPqiCa1Qtfv+rRfVClogOLJNWu+qDCpL/7OqimCRhstG9lETqbXXJqUc/COXRB+kpuys+/+qwCT78J776JTCKCnCV1zd7AiXX4GUyGLRk8O0hWMJJ9qrrVPxFRkTZcS6OqGMk+ESljV+gEMyWlxcB2AypwTGyfGsoxREUVVbIOgzW5FVPDheRWp6iNKmt6ACpXh0wS+9CVOWfAoU1RGafJOe4zgIJABQak9um8mpvo3Y3KKcJRhe+Ewtvfr0z6I5/AfUjJppqiDMGZkCFS7ZJDXvfICrUqSeF/56i8Ag8BY5mbqKIKdQkuUseoUu3ryP19VdRuxQpMCGiIn2+wImUMVBF33+zGDqyMavQUmI0Ku25CQOsNIAsVrKhQNbR4UMUNUfgNGqH0ujvbi8rE6YJ+p9rxWhvV0OVa2CPC2PpTBo7FIg3+HEgLPvj04NAnN4kVV1CQCZYy8iUMLRYUzKkuR2Gtmi6sGC/JgSO5431FWRzVre71Ct6p96i7LRaMlnvRxo0r8ZioW9nGt+0O0jeXijUdVJvIQbWNHFTbyEG1jRxU28hBtY0cVNvIQbWNHFTbyEG1jRxU28hBtY0cVNvIQbWNHFTbyEG1jRxU28hBtY0cVNvIQbWNHFTbyEG1jRxU28hBtY0cVNvIQbWNHFTbyEEllE8ukywfVExBEE2GdlDVhMVoBrGDihJ++CfROqhS6Qn6UGIHFRDFQA+gdVB5GVEhNLUdVH8yspdRU3xQ6d76ZQtdSg6q8aAiM+0a3o5qBqXIVLuxV6OaUp1yg42ZX4xKCiqbNDUFvp3Wa1EJAk0wambWSOulqHjRYjKSM2uC9UpUnEixCbTxaoD1QlRiUCK97HxiWK9DVYlQC6NWHUIjL0NVjk43JFxdJQVX3btQcUDpG6z2dDxdb0JVCItudcJV47r5Zl+EqhauYcsWSrBeg4qKh3L/VLZfglXV8BJUVJzmYIqNUZdq2d+BqlKl5vpBelLJ/ApUpRp1gyu0N8Wsb0CFBmF2hUot46dL+V6ACgvBbZyCdfx0IdfzUSEBuBeU9wA9S+d5PCqK1C3OJD6glZ3M8nRUBKlbfIkFhVXy7eGo8qKvUKUuEbJ6NqqlSVnUG9q/R6MSBAL5K2vuwhjfgj98F5+LKit0qUoZ95fA0nAMDg+f1cNRpcelTtsY8BcdbfgbgYMDxGb1YFQYKTp14HTFxIT/bmCFefhYVDJSEZyrgnlQd7SBiIdPRSUlFf6wqv+7qO7n8L8iyGP1VFQIqZs84QiL1UtQVUndHASMVZrmoaiEpO7/O6nYxCJJ8lBUcUmrO0GjvWEIwipJ8RZUpbRrBCBllTn9YFQf7DMiq5S/1gQ+FRX7wfH7uykvlWr1WFSWh2qlwleq1XNRsR7yW6vs5Wr1ZFR1Wazo5Wo1HFXUZ6y1YrBQN3VJsVoNRfUhZZhJgWiV2xHH9RmQrG7xDlQ0pVV4qZEKu5JlxRyDcVQmoKJZSGEl69rwFu0UtVJf+5DGRfLaQjFgaf5njbVCX6hWI1AxILBxUe51Oq3ZTX0xgD3IbGfyusKKdKFaqaMSNG0cWn4b/bor/TZ6uI3ZEjafNIscwMTVKgb1O8OpVdNQyfqgOitzQXJtiDsn30gPqXVHfsY1buGZJ7AnmUhdHc1KGVXDaKFM62pdTHJ7uo11vhlDHqwls1C1jesKrPx9CpuvsJnOt5E+3Sf3kqW3Xyahah+Bjx67R4PpujTp1ZF5qDqyjmQVN3/VgQUTWJ6Eng5fV3wWSvv6qLisGp8eymPKs1W0hvBIp8N56qrh9VEVsxvwoR0VvKHZWmhcyGlsOmzcGNHPNsqVdgqq7jYsVwCn/NeoHQ6F2b67aarXKeqp0LCiprPpsBu2gtmXKd9xs2pVb/6cVfTfD1eY/cv6f1CrihkRXMgZ3Eo6HbauMsFZxlUMXLZoADFWYE6VLFoIJ1ZRq8cZMaS6o2PCcDodjj8mFZqwvAkq5HkC3wLaqOi+9GwJJf3Lxlnnz2FVhm8qkZw3Be7WoOIIKo5zjokChjSE35+EfhUvl16tSDQ05OIVociI4JW1VHTAlOK48BpgpqAlG2vN2uA0gmXieg4LdUHgbtnP2CloV3VxpJdVc/YyrG/4DQEpS4jULfAZtzWE1FBUlYVyTvbWrIUx1U/YBUVo+QFFsj6UXu+Wiag6WXVVShRWCLukoBksA37Gn/KjHpm4C+xM0J1CLWeP4aws0AthQZMCpMtRSaOoJJ/ZqCzr0VYiW5fZpGJFPogLmrDK5lnZh36Z/BhMsCPG1UvKRrDQNkwkecWKTDXrLRhMzANrg5+uFcJSQBVgZeO4FmV1VsqTHfJoNCpb3I9HkqqYNM5uflYuFVbacx3yaAIq/gNnhVTC1tQgc6jmcpb6O92nn0qk5qBizozJRJ9YWAb/YMWn2ssJrA6bTzk78WFkag4qTtPGJcWtoOSATS6latWuFTNDHs1DVWVFM0iusGD90sRbTCw3i/pQPcP2kJBl/iVQkQDyCwxWPoXaNNVrhKu+CnoxE/4wvj4NVXEn6kORxLFUYYE6UNkNZMufyh+gZC9FcaG2WKlWQPUrMN348U+Dy+HALbCynCwr/aCs1Pap6NnvV+5vAIsjhVIuti2TLt81SWj0THJKaZ++QmoNVKVMBcCiXP2l9FrTZUbDGOewlfvjLMnSqMrVTXRJoZAEKvcgQKfqbOiUJbp/XlVuGYsaBSORoaiYU/yS5jqpSagq3RE1cqiNHfIkrt/PUmugcmqxuXVPxUJLkScbv1+FhhRLmQvTRCY5Ko0yBlSo8mZWTFLDnq0I4WZEPQ4zExRq7ZvrHlSt+wJ5UQk9+s8BIqgk+QyfU5bXnclQ6Qyna6haWCGFpbQoospC1iSanYqiTstBJWaFhYsMoBoqDUx/ouFNuv+hNEel1qgMTCQJABYwOoZaqFQw/ckAVFr3Ig8VPwoEKEqBCiqd+vQTJVRwEVBB428DjFBo4mTMQFBViszej8oNB/q0eNFC5Uus175zULFZyRq/rxmPChm9YRLbCqdZESG+EYU8/dj1zIIpbQU2SVTE8uYihxXeDFVyilFR+HgRITYkkB3APlTo5mK7/LTxUNWHFulND86WsnWiIv0lzYVvYcOvH7qvqfnPVvxmHmglFFxzzMREVdxEJTv2Kim9wTq3ViXfwjbJi5OuvSX41edGX+Lw9kjacNRR1VbRaBsFuQuV52NMgsp9vmi2+/JXep0F9aQtrT4IQ0Q9b4pyGwWZiwp869q1ftdRuGZAuvYG8E80Nv1gcAWoKBy4PyxSs2tVPVN8qo2VjykZHKbE+dmokD3dblA3o0LfvJKlafbFUIMtpqSZW1EVMFk+qZtrFaqHfl2EyBcTeqwWWki+FlTF+mQFoJZEhagSwjJRjkqwMMGz8FG5gUXNssivRVCFV75cYXYDQ5hA4Es+K+XyKiQVofqT630mRVM1f4CZNVBFU6kw5YqTsE1gKT+RYLmqKUSoKpga9iKWRGXclCtNxKRFpPqwpayWgQr7flfuS60cqc4lUIHZlg1zKzQhR1fhahuln+Lkd3relaN+RzWAWgaVQA8aCAMuc3wRQoqN5CNU0YydaS03vx0qi1QtE1/R8oWwYhI8EnPc2wIzvyOqrGq5Oa+JDrXFWLz28Mc77AqMmt8TlfVDep8HBHB8rUpOMwwKGlrK/LaorP8yTnajL4eqn5PdG5WFqEb4gpj7/Y4DD6oz1kJyRi6cEcmuqH7DeZAeeT5DW7ypNPjoxCqTsmaTnkBU7ooK9FWjfEHVpl8wRdZVvMRAaXpZ/gehqt6kI+Sr9vNF9TvhOGT2uLO1BJqf/7vlUP/PXdUrxyw9lZZ9IKq/6KcdEbAnnVVHun/LafFv8IjJWqiY3tTWBcahSshYyK6Vklfu5tMRstCPLYTKRMME7HI0IC+M+Yai8qYvKxiqBs2OyPqoPAdKjylczLZLmn0wyWF6P1yV6ndPGd959T6276by7pEg+GSk76wWQWWQT0gKfLzHGj8xfYCOpGPMCJWL3g8VAxSzfaR9XwQVNpJFBrboBEbLl9QCNtkJDSB8KtkwntLEJXeC7oUNNCkQvKAdgjaAJvmYG6kj5gtiMV2vCkV3IL/DCpxUezCpCDWhymxoDCtSPTE24oZjPKDGdgAZq4BzbrDuplJugen7IdFV49EATNIAFmlpNKPptiBTJ7191emO1w+GfFexzQd8wzz6khBIVEcggdXRV8UGtHq8tM3jZRszWAcjCjCPCKF1DZ8p38VV4eXoG1YAC/rhEakszLJUfIlaR78ICPvXRkxBavn6R4C+EdCR+rBdokNVTNQSgk/uuB0TUFAw312w6AbrFpN96NChlA4kN8nYQ/lhjhIrlXlVX8VPHMo+dOhQSZalB2N768aCWlKIodIUGO1Wm8Qkv3t09CRD+noT//ZTsWyu3B1K9ILaaoWzoiU9qDQs5IVJUf3Ch7WK3VFEz6uiCrYGx3GChUIpkplBst5Rk3qyiagUZLxPcgsZ40wlhxeja0NU/9S/E1XPoCWrgMn1whIjExVud0lUK5MKeQu40Hwe2UE1yUCcVwLrl73WRFK6lkS1Eak/EdauipBKVkS1NCkysw6rgoo3ourTX8rdi6uYe0FUa5MqZ+9pCGs510O1OKl6fjkuXo6DakB2ySiDPyZZDtXipLj5K9Pk0c9WTJHB3nSrFyhAcODCtLwYqtVJtWjohnRZXgvVSr7gouBho4qDSiYqDrYpWQvVQq4QclBdspArhOh42KRlLVTdYvzXXvIr+acWAx15O7U8DBW1cxdtEt2PqknNAFT0prXofm67+Qej0orVGqiyYJn0I+PpA/87TVtz1u2zujfWhTYxfP/PXA+EgZeHc+8MtVg1KFJHlWubiyr8/9sa/x0YX1ITFIdvb7KD8EhU8N529/QVJH93X5dCxMLbGy9NMLNLXzXv6CSovr8vL/xvR/TFtcqX34Q4+Bcw+CAmt7ZPn978UaaqeRMKlqDyxCz4Z8gejiqchshVDUNlkrhc/cUvie9QQrzi9KEKJplrlcoP1p2WS9dVWX0lhzVa8LhlS0S0VI0aVvheKbqFQa2yMIlrfgxouSAqk2TiuaFcMIn1EbrGDNZtuL/Dw2/+3gVXLLy1o7Nh/OYyh06OVSzGE8fyot2p68YpMLeDWEhU3ZUqu3O1YsBtP1aG9Or89A9bWBoqA3p1SfKDChcsKq6ntfB3UcnV31q0CTEhWZSFUHxQEUJHxVRTwJRgQkKrNtHng0okhbCwUUWzEUQBfuagEsq1zOFnEmDS7No0YyuNIJwrZotpYK0YHFqXGFN3UKHiZtwmWhwzoYIwpuRZrfJrXQ5JOsU3NrKRqDuoMPEz8GgFJUT9WugqTzcSVGBxzGQ/D6pWyQYEYA0yxsfW4n7EkMBC6EHVInkfYtwwOlolqy3zgsWxbCEtLCvbMJ4vrZ4dVDwxoY6oK+amPKgY4paZ1UMl0XhQbSMH1TZyUG0jB9U2clBtIwfVNhKjCk8KxWnA8xGElmg4y30AKNdhwBHtMUvD4yQOj0VjFJa/8Dj5h1vCDzkqk6iXo0o1PE0yVEhhG1AhieqORKkwJWUdqQau5V0EoPI70Xiy6Dd1jURVvdvhihiRoaIj1cC1vIsgqNLP8Ni3baA7SlGBJ/h8ShOdBA//hQYXfnDQI13x1h7QE5yMDIZO1qQZtsQnRhXKmta0uFaBVDDynqb1qYMNmAYqIXTQrCxotRNvRE9+LiUEKiSZ/81DFZ3Bwmw9sWAkxhN/xlGld5gBaoO+YqZdpBlVaAEJVL7lAYkQyt66tbDVcpoMqAMVVBEd54KNFD0FlY8Insz/zooKmx30PrZYmH/HwTi8Hmkq6MhQeTBBf1TRn4UqlDhO5n+HWzXOR6Myzk4e3tg4UA000TpyXcAXl8V4bc9B9Wsn3Gkbn/btSGim8nxhYxq2OTB6SWZYqyglNtKRDOjgEDJ132e2WQZj9mMVo5pvfiu198qdqAbZvvnuGyb3ohpiesfGjSNPvQUfKAfVNnJQbSMH1TZyUG0jB9U2clBtIwfVNnJQbSMH1TZyUG0jB9U2clBtIwfVNnJQbSMH1TZyUG0jB9U2clBtI9dzXEc2kH+n4iAlp08XWQAAAABJRU5ErkJggg==" name="NMBrain3Stms" align="bottom" width="425" height="658" border="0"></font></p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">But
the hindbrain does not represent the body somatotopically, that is,
as a picture or isomorphic representation of the body. (Its diffuse
organization is called a &quot;reticular formation&quot;.) </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">There
is, however, an appendage to the hindbrain, the cerebellum, whose
neurons correspond roughly to the geometrical structure of the body
because of how it assists in generating behavior. The somatotopic
organization is required by the cerebellum's function. It modifies
the hindbrain's motor output in order to even out the spatial
distributions (and temporal sequences) of its ultimate commands to
local muscle groups (using its own somatosensory input). </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 3.81cm; margin-right: 2.03cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif">That is,
when different regions of the hindbrain generating different kinds of
behavior call on the same local muscle groups in the spine, the
cerebellum distributes their orders spatially and temporally so that
all the tasks requested are accomplished without overtaxing any local
group (while keeping the body oriented in gravity, with the help of
the vestibular nucleus). It has its own channel of sensory input from
the body, from the inner ear about acceleration and orientation in
gravity, and from nuclei (olivary nuclei in the caudal hindbrain)
that appear to compare motor commands with somatosensory input. It
modifies motor commands by way of its output to the hindbrain
behavior generator.</font></font></p>
<p lang="en-US" align="left" style="margin-left: 1.27cm; margin-right: 2.54cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt"><i><b>Midbrains
visual input system.</b></i> The midbrain registers <i>telesensory
input </i>from the object. The main form of telesensory input was
originally vision, whose 2 .D arrays, as mentioned before, are easily
set up in the neural tube. The retina is a segment of the forebrain
that migrates to the ectoderm of the body and determines cells
already located there to become a lens and an optic cup behind it.
The retinal neurons send an ordered, 2 .D array of axons to a region
of the midbrain called the &quot;optic tectum&quot; (and to a part of
the forebrain called the &quot;thalamus&quot; from which the retina
migrated). (See diagram of the visual input system.) </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">The
optic tectum picks objects out from the background, a relatively easy
task when either the object or the animal is moving. Its control of
the direction of the eye serves the function of inquisitive behavior
in the animal system of representation, though the optic tectum also
receives some somatosensory input. But somatosensory input includes
the &quot;lateral line&quot; in fishes, which can detect the pressure
caused by fish swimming nearby, and there is also taste input to the
optic tectum (from cranial nerves that serve the feeding apparatus),
and hearing (after it evolves). </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">The
optic tectum has a large projection to the hindbrain behavioral
output system, by which the optic tectum can adjust locomotion
according to the direction, motion and distance to the object in
space it is tracking visually and direct routine responses to
objects, as in feeding. In non-mammalian vertebrates, in short, the
optic tectum serves as the animal representation, or the input
subfunction in the animal system of representation, for it guides the
locomotion of the body in relation to the currently perceived object.
</font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 1.27cm; margin-right: 2.54cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt"><i><b>Forebrains
olfactory selection system.</b></i> The basic need responsible for
the evolution of the behavior guidance system is choosing the goal,
and telesensory animals must choose which goal to pursue with respect
to the object at a distance (feeding, self-protection, mating, and
the like). This subfunction is served in non-mammalian vertebrates by
the forebrain. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">In
the primitive vertebrate brain, these decisions depend mainly on the
forebrain's own form of telesensory input, <i>olfaction</i>. The
olfactory bulb, located at the extreme rostral end of the
telencephalon, contains neurons that identify molecules by
interacting with them directly. About organisms, olfaction is usually
a reliable indicator of the kind being encountered. The olfactory
bulb has multiple pathways by which it reaches the midbrain and can
control the kind of behavior that the hindbrain generates in response
to the visual input from the object. (See diagram of the olfactory
selection system.) </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 3.81cm; margin-right: 2.03cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif">One pathway
by which the olfactory bulb affects the midbrain is through the
hypothalamus, a (ventral) part of the diencephalon, which has
multiple connections to the midbrain. A second pathway is through the
amygdala, another nucleus in the telencephalon, which, as the seat of
fear, can override other routines and generate fighting or fleeing
instead. And there is a third pathway involving the septum, a ventral
part of the telencephalon. </font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 3.81cm; margin-right: 2.03cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif">In
primitive vertebrates, the main route for affecting the midbrain is
<i>via</i> the habenulae, a prominent, asymmetric pair of nuclei
located just above the diencephalon (or atop the dorsal thalamus)
which has a heavily myelinated bundle of fibers (the fasciculus
retroflexus) that passes through the thalamus to a spiral shaped
nucleus at the ventral midline of the midbrain (the interpeduncular
nucleus). The olfactory bulb projects to the hypothalamus and the
septum (which are interconnected), and they have connections to the
habenulae <i>via </i>the stria medularis. The amygdala (which is also
connected to the hypothalamus) has a connection of its own to the
habenulae <i>via </i>the stria terminalis. (See diagram of the
olfactory selection system.)</font></font></p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">The
forebrain also has, as we shall see, two other ways of affecting
motor output, which depend on other kinds of sensory input. The
forebrain receives (<i>via</i> its thalamus) visual input (both
indirectly, by way of the optic tectum, and directly, from the
retina), auditory input (after hearing evolves), and even some
somatosensory input, all of which become increasingly pronounced in
the evolution of vertebrates. (See diagrams of the forebrain output.)
But these sensory inputs are used only to modify behavior in relation
to distant objects currently being detected by the optic tectum and
to generate complex instinctive routines, including telesensory
map-making routines. Thus, there are, including olfaction, three ways
that the forebrain can influence what happens in the midbrain and
hindbrain, and all have to do with the subfunction of selecting the
right kind of behavior. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 1.27cm; margin-right: 2.54cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt"><font face="Verdana, sans-serif">F<img src="data:image/png;base64,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" name="TtsOtkCRS05_08" align="right" hspace="5" width="175" height="20" border="0">oundation
for a higher level of neurological organization.</font> Looking
ahead, the transformation of the non-mammalian into the mammalian
brain is often described as the centralization of functions in the
nervous system. That is, as mentioned above, the three subfunctions
of the animal behavior guidance system, which are parceled out to the
three anatomically distinct sections of the non-mammalian brain, are
all served by one of those sections in mammalian brains, namely, by
the forebrain. The midbrain and hindbrain structures are still there,
but they are slaves to the forebrain. The simplest and most
convincing way to show how the four subsystems of the subjective
animal system of representation are the functions served by
structures in the mammalian forebrain will be to describe how those
structures evolve from simpler mechanisms in the non-mammalian
forebrain, and thus, it will be helpful to describe the relevant
structures of the vertebrate brain here. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 1.27cm; margin-right: 2.54cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">There
are two important kinds of changes in the mammalian brain, not only
the evolution of a neocortex, but also the redirection of erstwhile
forebrain output back to the forebrain (by way of the thalamus) to
form the complete circuits of its higher level of neurological
organization. To see what is involved in these changes, let us look
at the structure of the non-mammalian forebrain more closely and its
three outputs to the midbrain.</font></font></font></p>
<p lang="en-US" align="left" style="margin-left: 1.27cm; margin-right: 2.54cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt"><i><b>Embryological
development of the forebrain.</b></i> The vertebrate forebrain
develops from the extreme rostral section of the neural tube. It has
two parts, the <i>diencephalon </i>and <i>telencephalon</i>. (See
earlier diagram of the main parts of the non-mammalian brain.) </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">The
diencephalon is the neural tube itself at that most rostral section.
It is divided into two parts: the dorsal half, the <i>thalamus</i>,
receives and passes on to the telencephalon all the forebrain's
sensory input, and the ventral half, the <i>hypothalamus</i>, is the
master control of the endocrine system (managing the messenger
proteins, or hormones, in the blood) and the parasympathetic nervous
system (sending nerves to internal organs). (The hypothalamus is,
therefore, the main way in which the outputs of the animal behavior
guidance system and the biological behavior guidance system are
coordinated.)</font></font></font></p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">The
telencephalon develops from the same segment of the neural tube as
the diencephalon. That segment of the neural plate does not close
fully into a tube like the rest of the nervous system; instead, both
sides are extended and thickened and become two, symmetrical flaps,
which ultimately almost surround the diencephalon, as the
telencephalon. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 1.27cm; margin-right: 2.54cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt"><i><b>Forebrain
output to the midbrain.</b></i> The non-mammalian forebrain projects
all its output to the midbrain, because that is where the optic
tectum uses telesensory input to guide the locomotion in relation to
the distant object (that is, where the animal representation of the
object guides locomotion). The default behavior is normal locomotion
and feeding. (Taste receptors have direct connections that affect
feeding behavior.) Output from the forebrain modifies these behaviors
and is responsible for selecting most other goals. The forebrain's
outputs are all received by a region of the midbrain where the optic
tectum influences the hindbrain motor commands and determines how the
body moves in relation to the distant objects, approaching or
avoiding them. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">The
most primitive output of the non-mammalian forebrain to the midbrain
for choosing the goals of the behavior has already been mentioned. It
originates from input to the olfactory bulb and reaches the midbrain
by various ancient pathways, including some through the hypothalamus.
This, together with another olfactory pathway (through the amygdala,
a ventral part of the telencephalon), becomes the <i>affective system</i>
in mammals. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">It
is the two other ways that non-mammalian forebrains can influence
behavior that are relevant to the evolution of the subjective system
of representation itself. Both of these other two outputs depend on
visual, auditory or somatosensory input received by the thalamus and
relayed to the telencephalon. But each involves a different target in
the forebrain. One target is the (non-mammalian) dorsal cortex, the
extended flap that develops from the neural tube at the diencephalon
into the telencephalon, and the other is the striatum, a structure at
the base of that extended flap. The dorsal cortex sends output to the
midbrain by way of its connections to the extreme (medial) edge of
the flap, which is (or becomes) the hippocampus. And the hippocampus
projects, in turn, (by way of the fornix) to the hypothalamus, which
sends output to the midbrain and to the mammillary body located in
the hypothalamus. (The mammillary body has its own projection to the
midbrain.) (See diagram of the hippocampal and striatal two pathway
for forebrain output.)</font></font></font></p>
<p lang="en-US" align="left" style="margin-left: 3.81cm; margin-right: 2.03cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><img 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" name="NMBrain2Paths" align="bottom" width="421" height="440" border="0"></font></p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">The
striatum, the other forebrain target, sends output to the midbrain by
way of connections in and through the hypothalamus. (See diagram of
the hippocampal and striatal two pathway for forebrain output.)</font></font></font></p>
<p lang="en-US" align="left" style="margin-left: 1.27cm; margin-right: 2.54cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">The
size of the forebrain increases in vertebrate evolution, and the size
and definition of the striatal and hippocampal pathways to the
midbrain increase more than that of the primitive olfactory pathways.
But the function of striatal and hippocampal output to the midbrain
is basically to select the <i>right kind </i>of behavior for the
distant object, including the construction of instinctive telesensory
maps. They generate instinctive responses, including complex fixed
action patterns, by modifying behavior that is already being adjusted
to the currently detected distant object by the optic tectum in the
midbrain. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">For
example, in an amphibian like the frog, visual input from the retina
and optic tectum that is relayed (by the thalamus) to the striatum is
used to select flight from large objects that are moving toward them
(which are usually predators), suppressing their normal behavior of
snapping at food. And visual input from the retina relayed (by the
thalamus and dorsal cortex) to the hippocampus is used to keep frogs
from jumping into walls. (See Macphail 1982 on amphibians and
reptiles.) </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">In
birds, at least, this hippocampal pathway evolved into a complete
circuit for a one-dimensional, vision-based memory for retracing a
pathway of salient landmarks, which approximates the mammalian <i>memory</i>
circuit.</font></font></font></p>
<p lang="en-US" align="left" style="margin-left: 3.81cm; margin-right: 2.03cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif">In the
avian brain, the dorsal cortex contains a detailed visual image
called the &quot;visual Wulst&quot; which controls locomotion by its
own, direct motor output. It is part of a memory map that uses visual
input relayed by the thalamus directly from the retina to the dorsal
cortex. And as part of the dorsal cortex, the Wulst connects through
the medial cortex/hippocampus and fornix back to the mammillary body
in the hypothalamus. But instead of merely influencing the midbrain
and motor output, as in other non-mammals, the mammillary body relays
a signal, by way of the thalamus, back to the Wulst in the
telencephalon. This is a complete circuit, resembling the mammalian
memory mechanism, is apparently used to construct a memory map for
guiding locomotion. Assuming it works the same way as in mammals, the
Wulst can use a one-dimensional chain of stimulus-response
connections as a map to guide locomotion without involving the rest
of the circuit (hippocampus, fornix and mammillary body). But vision
is the only sensory modality involved, and judging by the
neurological mechanisms, it cannot use its memory map as a locomotor
imagination.</font></font></p>
<p lang="en-US" align="left" style="margin-left: 1.27cm; margin-right: 2.54cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt"><i><b>Reptilian
innovations.</b></i> There is little change in the basic structure of
the non-mammalian vertebrate brain (after the evolution of the jaw in
fishes), except for three important changes, each involving one main
parts of the brain, that came with the evolution of reptiles and the
their use of legs to support the body. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">Legs
that could support the body made vertebrates better able to move
across land, and new mechanisms were required to operate them. A new
section of the cerebellum (the <i>paleocerebellum</i>) was required
to balance the body on its legs and smooth out motor commands to
them. And to serve this function, it has a somatotopic organization,
that is, like a picture of the body. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">The
paleocerebellum projects to a new nucleus in the midbrain, the <i>red
nucleus</i>, which uses a somatotopic array of neurons to send motor
commands to the limbs. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">Finally,
the source of the more complex motor commands required to operate
legs is a prominent, new structure in the telencephalon, the <i>DVR
</i>(dorsal ventricular ridge). It is a major modification of the
striatal pathway of forebrain output, because the DVR receives most
of the thalamic relay of sensory input <i>via</i> this pathway to the
telencephalon (including both the direct and the indirect visual
channels), and the DVR projects to the striatum, by way of which its
output reaches the midbrain and hindbrain areas for generating motor
output. The DVR controls the motor commands from the red nucleus by
way of a projection from the hindbrain to the paleocerebellum. (The
main part of the DVR also projects to a more basal part of the DVR,
which also receives olfactory input and projects to the hypothalamus,
according to Ulinski, 1983.) (See diagram of the reptilian brain with
paleocerebellum, red nucleus and DVR.) </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 3.81cm; margin-right: 2.03cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><img src="data:image/png;base64,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" name="NMBrainDVR" align="bottom" width="422" height="224" border="0"></font></p>
<p lang="en-US" align="left" style="margin-left: 1.27cm; margin-right: 2.54cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">To
sum up, there are only three ways that the non-mammalian forebrain
can affect the behavior being generated in relation to the distant
object by the midbrain and hindbrain: the ancient olfactory pathway,
the hippocampal pathway, and the striatal pathway. And the only input
to the non-mammalian forebrain is the sensory input (indirectly from
the midbrain and directly from the retina) registered in the thalamus
of its diencephalon and relayed to various structures in the
telencephalon — that is, except for the forebrain's own telesensory
input, olfaction, and what the hypothalamus gathers from its control
of the endocrine and parasympathetic nervous system. Although there
is, as we have seen, a further development of the reptilian brain in
birds, this is the basic structure of the reptilian forebrain from
which the subjective animal system of representation evolves.</font></font></font></p>
<p lang="en-US" align="left" style="margin-left: 1.27cm; margin-right: 2.54cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt"><font color="#993366"><font face="Verdana, sans-serif"><b>T<img src="data:image/png;base64,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" name="TtsOtkCRS05_09" align="right" hspace="5" width="275" height="30" border="0">he
gradual evolution of vertebrates. </b></font></font>In the first
section of this chapter, we found that the evolution of telesensory
from somatosensory animals is inevitable because it is both possible
and functional. In the second section, we saw how deuterostome
development of chordates makes it easier to construct a nervous
system with a telesensory level of part-whole complexity, and the
third section described in detail the structures in the vertebrate
brain that are the foundation for using the deuterostome capacity to
determine entire 2-D arrays of neurons to construct a brain with yet
higher level of part-whole complexity. We are following the
inevitable stages of evolution that lead up to beings like us, and
thus, it remains only to trace the gradual evolution of telesensory
animals on earth. We may set aside animals with proterostome
embryological development, because we have sufficient reason to
believe that they are not capable of evolving beyond the telesensory
stage. Let us consider briefly, therefore, the origin and
evolutionary career of vertebrates, beginning with the somatosensory
animals from which they evolved.</font></font></font></p>
<p lang="en-US" align="left" style="margin-left: 1.27cm; margin-right: 2.54cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt"><font face="Verdana, sans-serif">S<img src="data:image/png;base64,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" name="TtsOtkCRS05_10" align="right" hspace="5" width="175" height="20" border="0">omatosensory
chordates.</font> We are counting somatosensory animals as a
necessary part of the multicellular biological stage of evolution,
because we want to count how many distinct levels of part-whole
complexity and, thus, how many distinct evolutionary stages, there
are in the ladder that begins with the original proto-organisms and
ascend to beings like us. The multicellular animals from which
vertebrates evolved are somatosensory chordates, and they are
represented by the brainless chordate, <i>Amphioxus</i>. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">Without
a brain, its nervous system is equivalent to the vertebrate's spinal
chord. Relatively sophisticated swimming behavior is generated in its
bilateral body by local connections between segments of its neural
tube, each with sensory, motor and interneurons serving the three
basic subfunctions of somatosensory animal behavior guidance systems.
The function of selecting the right kind of behavior is served by a
cough reflex at the mouth that rejects unwanted particles. And motor
reflexes triggered by somatosensory input lead <i>Amphioxus </i>to
burrow into sand at the edges oceans around the world in order to
feed on microorganisms and protect itself. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">Before
vertebrates evolved, brainless chordates must have acquired free
energy in more active ways than <i>Amphioxus</i>, feeding on
microorganisms while swimming or seeking out multicellular plants to
browse on. It is not known how vertebrates evolved from animals like
<i>Amphioxus</i>, except that it was part of the evolution of
telesensory organs. But it is no surprise that <i>Amphioxus </i>is
the only extant representative of the first stage, because when
chordates did evolve telesensory organs and a centralized nervous
system to use them in guiding locomotion, somatosensory chordates
were left with only the most low-energy, sedentary ecological niches.
</font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 1.27cm; margin-right: 2.54cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt"><font face="Verdana, sans-serif">T<img src="data:image/png;base64,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" name="TtsOtkCRS05_11" align="right" hspace="5" width="175" height="20" border="0">elesensory
chordates (Vertebrates).</font> According to the detailed fossil
record, which begins with the Cambrian Period about 570 million years
ago, vertebrates showed up about 500 million years ago, after almost
every kind of marine invertebrate had already evolved. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 3.81cm; margin-right: 2.03cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif">Multicellular
plants had evolved long before the Cambrian period, and what accounts
for the fossils of animal skeleton that mark the beginning of that
period is the evolution of the mechanism of embryological development
(that is, the biological behavior guidance system for multicellular
animals). The relatively late arrival of chordates suggests that
deuterostome development evolved after proterostome development.</font></font></p>
<p lang="en-US" align="left" style="margin-left: 1.27cm; margin-right: 2.54cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">Vertebrates
are named after the series of vertebra that enclose their neural
tube, except at the head, where the brain is located. From the
beginning, as we have seen, the vertebrate brain had three,
anatomically distinct parts (midbrain, forebrain and hindbrain),
serving, respectively, the three subfunctions of the animal behavior
guidance system (input, choice and output), and we have seen how the
function of the telesensory animal system of representation is served
by its structure. There is remarkably little change in the structure
of the non-mammalian brain, but the bodies of non-mammalian
vertebrates underwent radical changes. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">The
most primitive vertebrates, jawless fishes (Agnathia), were still
filter feeders. They actively scooped up detritus from the bottom,
although their contemporary descendants, lampreys, have adapted the
jawless mouth for preying on other fish. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">From
them evolved the now extinct, heavily armored placodermi, with a
major reorganization of the hindbrain to operate its hinged jaw. The
jaw not only made them ferocious predators, but also revolutionized
the means of ingesting other organisms for all subsequent
vertebrates. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">Two
kinds of fishes evolved from placodermi, cartilaginous (such as,
sharks and rays) and bony. The cartilaginous skeleton was a departure
from the bony frames of placodermi and jawless fishes. But bony
fishes were so successful that there may now be as many as 40,000
species of them. The earliest of them were fresh water fishes, which
had lungs as well as gills to supplement their supply of oxygen when
the water was stagnant. In most extant species, the lungs have
evolved into a swim bladder, which is also used for water-borne
hearing. But one early lung fishes, the lobe-fin fishes
(<i>Crossopterygii</i>), had fleshy bases for their two pairs of
fins. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">From
lung fishes evolved amphibians. Their ability to pull themselves
across the land opened up a new range of living objects to ingest,
for by this time, plants and some insects had already invaded the
land. (They were our first example of gradual evolution by
reproductive causation, in <font face="Arial, sans-serif">Change: As
aspect of substance: Global regularites: Reproductive: Gradual
evolution).</font> </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">There
was room for improvement among vertebrates that completed cycles of
reproduction on land. Although fertilization is still an external,
water-based process in amphibians, it was done internally by
reptiles. Reptiles not only had eggs with a shell that protected them
from drying out as the embryos developed on land, but the reptilian
body also acquired a dry, scaly, relatively impermeable skin. There
were also advances in the heart and lungs. And whereas amphibians had
short, weak limbs attached high on the sides of their bodies,
reptiles evolved longer and stronger limbs that push directly
downward, enabling their bodies to clear the land as they moved
along. In order to operate these limbs, new structures evolved within
the basic three-part structure of the vertebrate brain to send
different motor commands to different legs (the paleocerebellum in
the hindbrain, the red nucleus in the midbrain, and the DVR in the
forebrain) . Reptiles also have air-born hearing, which among
amphibians, occurs only in frogs. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 2.54cm; margin-right: 1.27cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">Dinosaurs
and birds evolved from reptiles. Dinosaurs were apparently able to
move around very quickly on two legs, freeing their front legs to
grasp other living objects; only as larger dinosaur species evolved
did some return to four-footed locomotion. Dinosaurs may have evolved
some control over bodily temperature, but we have little evidence
apart from birds, which descend from an early dinosaur species.
Hollow bones and feathers adapted birds to flight, and besides
improvements in heart and lungs, they acquired the metabolism to
maintain a high body temperature. Since hatchlings cannot acquire
energy for themselves until their bodies have developed far enough to
fly, birds also care for their young, a rather rare trait before the
evolution of mammals. Birds also have, as we have mentioned, a
one-dimensional, stimulus-response, vision-based memory for retracing
a pathway, as in returning to a nest, patrolling a territory, or
migrating with the seasons, and dinosaurs probably did too. </font></font></font>
</p>
<p lang="en-US" align="left" style="margin-left: 1.27cm; margin-right: 2.54cm; text-indent: 0cm; margin-top: 0.49cm; margin-bottom: 0.49cm; line-height: 100%; widows: 0; orphans: 0">
<font color="#000000"><font face="Times New Roman, serif"><font size="3" style="font-size: 12pt">Although
these changes in vertebrates required enormous periods of time, they
are all at the same stage of animal evolution. Jawless fishes first
appeared about 500 million years ago, about 70 million years after
the start of the Cambrian period. The jaw evolved somewhat more than
400 million years ago, about the time that plants invaded the land.
Amphibians evolved from the lobe-fined lung fish a little more than
350 million years ago, during the age of fishes. Reptiles evolved
about 300 million years ago, late in the age of amphibians, and the
dinosaurs evolved about 225 million years ago, after the decline of
amphibians, followed shortly by birds (over 200 million years ago).
The evolution from fishes to amphibians to reptiles to dinosaurs to
birds is not a result of the dialectic of gradual and revolutionary
change, because their nervous systems (and bodies) are on the same
level of part-whole complexity. They are just a series of adaptations
of an animal behavior guidance system with a telesensory animal
system of representation (and the body it operates) to new habitats
on land and in the air (though some used their improved design to
return to water). These changes did not alter radically the
structures of their brains.</font></font></font></p>
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