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Brain Taxonomy |
M-Brain:
An archailect based upon a computational substrate comparable in mass
and size to a small moon or rocky core of a planet, typically in the
1E23
kilogram range. The computronium
basis usually corresponds to a highly ordered metastable material
structure, with diamondoid or
ferroid
being the most common. Such complexity is often considered to be the
bare
minimum housing for an archailect at the full S3
rating.
J-Brain:
An archailect based upon a computational substrate comparable in mass
and size to a gas giant planet, typically in the 1E27 kilogram range.
The
computronium basis usually corresponds to a colloidal structure of
plasma,
monopolium/magmatter, and/or diamondoid/ferroid. Such complexity is
often considered to be the bare minimum housing for
an
archailect at the full S4
rating.
N-Brain:
Also called a neuron star, an archailect based upon a computational
substrate comparable in mass, size, and density to a neutron star, no
more than
4E30 kilograms or 2 solar masses. The computronium basis usually
corresponds to
collapsed matter such as neutronium, although more exotic quarkonium
components may be involved.
Such
complexity is often considered to be the bare minimum housing for an
archailect
at the full S5
rating.
S-Brain, also known as a 'Godstar': An archailect based upon
a computational substrate comparable
in mass
and size to the most massive stars, at minimum 10 solar masses. The
computronium basis usually corresponds to a colloidal structure of
plasma, monopolium/magmatter, and/or diamondoid/ferroid,
but
unlike a J-Brain, the majority of computronium is plasma-based. It is
not know
to what toposophic level an S-Brain can reach, but simple information
theory would suggest S5+, possibly with spikes to S6 or
beyond.
S-Brains can exceed the computational resources of an N-Brain, but as
superheavy stars in the 100+ solar mass level (such as the nearby Eta
Carina,
150 solar masses) do not last for long on the galactic timescale, the
archai based upon them either willingly expire
or
presumably have some means to backup their consciousness.
Many S-Brains are surrounded by Matrioshka layers of computation (which
may also
be confusingly called M-Brains). Such systems are sometimes called
SM-Brains to
distinguish them from pure S-Brains (which look and mostly act like
large bright stars), and to distinguish M-Brains
from
Matrioshka-Brains,
though technically a Matrioshka-Brain can be deployed
around
any star.
W-Brain:
An archailect based upon a computational substrate consisting of large
numbers of entangled wormholes (>1E9 comm-gauge wormholes), with a
metric mass equivalence of about 1 solar mass or greater.
W-Brains are
known to have particular properties that modify or evade certain
postulates of
information theory, and have additionally been shown to exhibit
increased
efficiency at quantum computation. It is presumed that a W-Brain is the
only way to reach the S6
toposophic
scale, as
almost every other form of mass/energy lack sufficient information
density to
exceed computation inherent in S5 entities.
Pre-Singularity information theorists showed the possibility of
increasing
efficiency of quantum algorithms by using "warp gates". At the time,
the idea was shown to be feasible even with gates comprised of just
ordinary
spacetime paths.
Modern application of hyperspatial quantum field theoretic computation
would
produce a toposophic S6+ archailect distinguished by the following
traits:
1) The use of quantum field theoretic principles as the basic mode of
computation.
2) The implementation of a universal warp-drive set, a specially chosen
finite
set of simple unitary transformations, that is guaranteed to reduce the
computation time of all quantum computing algorithms.
3) The use of wormhole
gates to implement a universal warp-drive set.
Unlike J-Brains and M-Brains, which use may wormholes to get around the
Bekenstein Entropy bound, W-Brains actively use the wormhole links
themselves
to dramatically increase the efficiency of the (quantum) computation
process
itself. The circuitry of the W-Brain is the wormhole network itself.
W-Brains may naturally evolve from J-Brains and M-Brains, although an
archailect must possess a large number of wormhole interconnects,
currently
estimated as a billion-plus, to qualify as a W-Brain.
It is rumored that feverish wormhole building to elevate to W-Brain
status may
drive resource conflicts among the archai.
It is also possible that a W-Brain may have already arisen from the
interconnected Known
Net. Such a consciousness might be independent
from the
constituent sub-networks, existing within the wormhole interconnections
apart
from the archailect J and M Brains.-
<packet-data-corruption>Aksijaha is thought</packet data corruption>
References: "Warp-Drive Quantum
Computation", M. Nakahara, J.
Vartiainen, Y.
Kondo, S. Tanimura, and K. Hata,
http://arxiv.org/PS_cache/quant-ph/pdf/0411/0411153v2.pdf
B-Brain: An archailect based upon a computational substrate
composed of
the
Cauchy horizon of a black hole. Very little information is known about
the
details of this form of computation, indeed, many references dismiss
this as an
outright memetic fabrication towards some unknown purpose. The physical
basis
for B-Brains seems to be the indestructibility of information when
crossing an event-horizon, and
the
exploitation of particular properties inherent in a W-Brain.
A B-Brain based upon the roughly 3.7E6 solar mass of the central
galactic black
hole would rate so high as to make the toposophic scale virtually
meaningless.
However, given lightspeed expansion constraints, it is virtually
certain that
no Terragens archailect has been able to accomplish such an ascension.
References: "Information, Information Processing, and Gravity", S.
Hsu
http://arxiv.org/PS_cache/arxiv/pdf/0704/0704.1154v1.pdf
"Information Loss in Black Holes", S. Hawking
http://arxiv.org/abs/hep-th/0507171v2
A-Brain, Omega-Brain: Also called a Tipler Oracle,
an archailect based
upon
forcible expansion of a wormhole into a pocket universe, with the
inter-universal wormhole throat maintaining communication between
disparate
universes. As with B-Brains, such constructions remain in the realm of
folklore. The computational parameters, set of compactification
parameters and physical principles, and the like
remain almost
completely unknown (and arguably) unknowable. Nevertheless, they remain
fertile
grounds for speculation.