Showing posts with label share this course. Show all posts
Showing posts with label share this course. Show all posts

Saturday, December 11, 2010

The Unfinished Project: Exploration, Learning and Networks.

Mark Pesce - Words.
CHU - Images.
Steve 'Fly Agaric'' - Mixing



CHU CUBE v1.0
CHU CUBE v1.0

The Unfinished Project:

Exploration, Learning and Networks

Part One: The Educational Field


We live today in the age of networks. Having grown from
nothing just fifteen years ago, the network has become one of
the principal influences in our lives. We trust the network; we
depend on the network; we use the network to make ourselves
more effective. This state of affairs did not develop gradually;
rather, we have passed through a series of unpredicted and
non-linear shifts in the fabric of culture.

The first of these shifts was coincident with the birth of the
Web itself, back in the mid-1990s. From its earliest days the
Web was alluring because it represented all things to all
people: it could serve as both resource and repository for
anything that might interest us, a platform for whatever we
might choose to say. The truth of those earliest days is that
we didn’t really know what we wanted to say; the stereotype
of the page where one went on long and lovingly about one’s
pussy carries an echo of that search for meaning. The lights
were on, but nobody was home.

Drawing the curtain on this more-or-less vapid era of the
Web, the second shift began with the collapse of the dot-com
bubble in the early 2000s. The undergrowth cleared away,
people could once again focus on the why of the Web. This
was when the Web came into its own as an interactive
medium. The Web could have been an interactive medium
from day one – the technology hadn’t changed one bit – but it
took time for people to map out the evolving relationship
between user and experience. The Web, we realized, is not a
page to read, but rather, a space for exploration, connection
and sharing.

This is when things start to get interesting, when ideas like
Wikipedia begin to emerge. Wikipedia is not a technology, at
least, it’s not a specific technology. Wikis have been around
since 1995, nearly as old as the Web itself. Databases are
older than the Web, too. So what is new about Wikipedia?
Simply this: the idea of sharing. Wikipedia invites us all to
share from our expertise, for the benefit of one another. It is
an agreement to share what we know to collectively improve
our capability. If you strip away all of the technology, and all
of the hype – both positive and negative –from Wikipedia,
what you’re left with is this agreement to share. In the decade
since Wikipedia’s launch we’ve learned to share across a
broad range of domains. This sharing supported by
technology is a new thing, and dramatically increases the
allure of the network. What was merely very interesting back
in 1995 became almost overpowering in the years since the
turn of the millennium. It has consistently become harder
and harder to imagine a life without the network, because the
network provides so much usefulness, and so much utility.

The final shift occurred in 2007, as Facebook introduced F8,
its plug-in architecture which opened its design – and its data
– to outside developers. Facebook exploded from a few
million users to over four hundred million: the third largest
nation in the world. Social networks are significant because
they harness and amplify our innate human desire and
capability to connect with one another. We constantly look to
our social networks – that is, our real-world networks – to
remind us who we are, where we are, and what we’re doing.
These social network provide our ontological grounding.
When translated into cyberspace, these social networks can
become almost impossibly potent – which is why, when
they’re used to bully or harass someone, they can lead to such
disastrous results. It becomes almost too easy, and we
become almost too powerful.

A lot of what we’ll see in this decade is an assessment of what
we choose to do with our new-found abilities. We can use
these social networks to transmit pornographic pictures of
one another back and forth at such frequency and density that
we simply numb ourselves into a kind of fleshy hypnosis.
That is one possible direction for the future. Or, we could
decide that we want something different for ourselves,
something altogether more substantial and meaningful. But
in order to get that sort of clarity, we need to be very clear on
what we want – both direction and outcome. At this point we
are simply playing around – with a loaded weapon – hoping
that it doesn’t accidentally go off.

Of course it does; someone sets up a Facebook page to
memorialize a murdered eight year-old, but leaves the door
open to all comers (believing, unrealistically, that others will
share their desire to mourn together), only to see the
overflowing sewage of the Internet spill bile and hatred and
psychopathology onto a Web page. This happens again and
again; it happened several times in one week in February. We
are not learning the lesson we are meant to learn. We are
missing something. Partly this is because it is all so new, but
partly it is because we do not know what our own intentions
are. Without that, without a stated goal, we can not winnow
the wheat from the chaff. We will forget to close the windows
and lock the doors. We will amuse ourselves to death.
I mention this because, as educators, it is up to all of us to act
as forces for the positive moral good of the culture as a whole.
Cultural values are transmitted by educators; and while
parents may be a bigger influence, teachers have their role to
play. Parents are simply overwhelmed by all of this novelty –
the Web wasn’t around when they were children, and social
networks weren’t around even five years ago. So, right at this
moment in time, educators get to be the adult cultural
vanguard, the vital mentoring center.

If we had to do this ourselves, alone, as individuals – or even
as individual institutions – the project would almost certainly
fail. After all, how could we hope to balance all of the
seductions ‘out there’ against the sense which needs to be
taught ‘in here’? We would simply be overwhelmed – our
current condition. Fortunately, we are as well connected, at
least in potential, as any of our students. We have access to
better resources. And we have more experience, which allows
us to put those resources to work. In short, we are far better
placed to make use of social media than our charges, even if
they seem native to the medium while we profess to be
immigrants.

One thing that has changed, because of the second shift, the
trend toward sharing, is that educational resources are
available now as never before. Wikipedia led the way, but it is
just small island in a much large sea of content, provided by
individuals and organizations throughout the world. iTunes
University, YouTube University, the numberless podcasts and
blogs that have sprung up from experts on every subject from
macroeconomics to the history of Mesoamerica – all of it
searchable by Google, all of it instantaneously accessible –
every one of these points to the fact that we have clearly
entered a new era, where we are surrounded by and saturated
with an ‘educational field’ of sorts. Whatever you need to
know, you’re soaking in it.

This educational field is brand-new. No one has made
systematic use of it, no teacher, no institution, no
administration. But that doesn’t lessen its impact. We all
consult Wikipedia when we have some trivial question to
answer; that behavior is the archetype for where education is
headed in the 21st century – real-time answers on-demand,
drawn from the educational field.

Paired with the educational field is the ability for educators to
establish strong social connections – not just with other
educators, but laterally, through the student to the parents,
through the parents to the community, and so on, so that the
educator becomes ineluctably embedded in a web of
relationships which define, shape and determine the
pedagogical relationship. Educators have barely begun to
make use of the social networking tools on offer; just to have a
teacher ‘friend’ a student in Facebook is, to some eyes, a cause
for concern – what could possibly be served by that
relationship, one which subverts the neat hierarchy of the 19th century classroom?

The relationship is the essence of the classroom, that which
remains when all the other trivia of pedagogy are stripped
away. The relationship between the teacher and the student
is at the core of the magical moment when knowledge is
transmitted between the generations. We now have the
greatest tool ever created by the hand of man to reinforce and
strengthen that relationship. And we need to use it, or else we
will all sink beneath a rising tide of noise and filth and
distraction.
But how?

Writing Hands by CHU
Writing Hands by CHU


Part Two: The Unfinished Project


The roots of today’s talk lie in a public conversation I had with
Dr. Evan Arthur, who manages the Digital Education
Revolution Group within the Department of Education,
Employment and Workplace Relations. As part of this
conversation, I asked him about educational styles, and, in
particular, Constructivism. As conceived by Jean Piaget and
his successors across the 20th century, Constructivism states
that the child learns through play – or rather, through
repeated interactions with the world. Schema are created by
the child, put to the test, where they either succeed or fail.
Failed schema are revised and re-tested, while successful
schema are incorporated into ever-more-comprehensive
schema. Through many years of research we know that we
learn the physics of the real world through a constant process
of experimentation. Every time a toddler dumps a cup of
juice all over himself, he’s actually conducting an
investigation into the nature of the real.

The basic tenets of Constructivism are not in dispute,
although many educators have consistently resisted the
underlying idea of Constructivism – that it is the child who
determines the direction of learning. This conflicts directly
with the top-down teacher-to-student model of education
which we are all intimate familiar with, which has determined
the nature of pedagogy and even the architecture of our
classrooms. This is the grand battle between play and work;
between ludic exploration and the hard grind of assimilating
the skills that situate us within an ever-more-complex culture.
At the moment, this trench warfare has frozen us in a
stalemate located, for the most part, between year two and
year three. In the first two years education has a strong ludic
component, and students are encouraged to explore. But in
year three the process becomes routinized, formalized and
very strict. Certainly, eight-year-olds are better able to
understand restrictions than six-year-olds. They’re better at
following the rules, at colouring within the lines. But it seems
as though we’ve taken advantage of the fact that an older child
is a more compliant one. It is true that as we advance in
years, our ludic nature becomes tempered by an adult’s
sensibility. But humans retain the urge to play throughout
their lives – to a greater degree than any other species we
know of. It could very well be that our ability to learn is
intimately tied to our desire to play.

If we are prepared to swallow this bitter pill, and acknowledge
that play is an essential part of the learning process, we have
no choice but to follow this idea wherever it leads us. Which
leads me back to my conversation with Evan Arthur. I asked
him about the necessity of play, and he framed his response
by talking about “The Unfinished Constructivist Project”. It is
a revolution trapped in mid-stride, a revelation that,
somehow, hasn’t penetrated all the way through our culture.
We still insist that instruction is the preferred mechanism for
education, when we have ample evidence to suggest this
simply isn’t true. Let me be clear: instruction is not the same
thing as guidance. I am not suggesting that children simply
do as they please. The more freedom they have, the more
need they have for a strong, stabilizing force to guide them as
they explore. This may be the significant (if mostly hidden)
objection to the Constructivist project: it is simply too
expensive. The human resources required to give each child
their own mentor as they work their way through the corpus
of human knowledge would simply overwhelm any current
educational model, with the exception of homeschooling. I
don’t know what the student-teacher ratio would need to be in
a fully realized Constructivist educational system, but I doubt
that twenty-to-one would be sufficient. That’s the level
needed to maintain a semblance of order, more a
peacekeeping force than an army of mentors.

There have been occasional attempts to create a fully
Constructivist educational system, but these, like the
manifold utopian communities which have been founded,
flourish briefly, then fade or fracture, and do not survive the
test of time. The level of dedication and involvement required
from both educator/mentors and parents is simply too big an
ask. This is the sort of thing that a hunter-gatherer culture
has no trouble with: the entire world is the classroom, the
child explores it, and an adult is always there to offer an
explanation or story to round out the child’s knowledge. We
live in an industrial culture (at least, our classrooms do),
where there is strict differentiation between ‘education’ and
the other activities in life, where adults are ‘educators’ or they
are not, where everything is highly formal, almost ritualized.
(Consider the highly regulated timings of the school day –
equal parts order from chaos, and ritual.) There could never
be enough support within such a framework to sustain a
Constructivist model. This is why we have the present
stalemate; we know the right thing to do, but, heretofore, we
have lacked the resources to actualize this knowledge.
That has now changed.

The educational field must be recognized as the key element
which will power the unfinished Constructivist revolution.
The educational field does not recognize the boundaries of the
classroom, the institution, or even the nation. It is simply
pervasive, ubiquitous and available as needed. Within that
field, both students and educator/mentors can find all of the
resources needed to make the Constructivist project a
continuing success. There need be no rupture between years
two and three, no transformation of educational style from
inward- to outward-directed. Instead, there can and should
be a continual deepening of the child’s exploration of the
corpus of knowledge, under the guidance of a network of
mentors who share the burden. We already have most of the
resources in place to assure that the child can have a
continuous and continually strengthening relationship with
knowledge: Wikipedia, while not perfect, points toward the
kinds of knowledge sharing systems which will become both
commonplace and easily created throughout the 21st century.

Sharing needs to become a foundational component in a
modern educational system. Every time a teacher finds a
resource to aid a student in their exploration, that should be
noted and shared broadly. As students find things on their
own – and they will be far better at it than most educators –
these, too, should be shared. We should be creating a great,
linked trail behind us as we learn, so that others, when
exploring, will have paths to guide them – should they choose
to follow. We have systems that can do this, but we have not
applied these systems to education – in large part because
this is not how we conceive of education. Or rather, this is not
how we conceive of education in the classroom. I do a fair bit
of corporate consulting, and this sort of ‘knowledge capture’
and ‘knowledge management’ is becoming essential to the
operation of a 21st century business. Many businesses are
creating their own, ad-hoc systems to share knowledge
resources among their staff, as they understand how
important this is for professional development.

This is a new battle line opened up in the war between the
unfinished constructivist project and the older, more formal
methods of education. The corporate world doesn’t have time
for methodologies which have become obsolete. Employees
must be constantly up-to-date. Professionals – particularly
doctors and lawyers – must remain continuously wellinformed
about developments in their respective fields.

Those in management need real-time knowledge streams in
order recognize and solve problems as they emerge. This is
all much more ludic than formal, much more self-directed
than guided, much more juvenile than adult – even though
these are all among the most adult of all activities. This
disjunction, this desynchronization between the needs of the
world-at-large and the delivery capabilities of an ever-moreobsolete
educational system is the final indictment of thingsas-
they-are. Things will change; either education will become
entirely corporatized, or educators will wholly embrace the
unfinished Constructivist project. Either way the outcome
will be the same.

Fortunately, the educational field has something else to offer
educators beyond the near-infinite supply of educational
resources. It is a network of individuals. It is a social
network, connected together via bonds of familiarity and
affinity. The student is embedded in a network with his
mentors; the mentors are connected to other students, and to
other mentors; everyone is connected to the parents, and the
community. In this sense, the formal space of the ‘classroom’
collapses, undone by the pressure provided by the social
network, which has effectively caused the classroom walls to
implode. The outside world wants to connect to what
happens within the crucible of the classroom, or, more
specifically, with the magical moment of knowledge
transference within the student’s mind. This is what we
should be building our social networks to support. At
present, social networks like Facebook and Twitter are dull,
unsophisticated tools, capable of connecting together, but
completely inadequate when it comes to shaping that
connection around a task – such as mentoring, or exploring
knowledge. A second generation of social networks is already
reaching release. These tools display a more sophisticated
edge, and will help to support the kinds of connections we
need within the educational field.

None of this, as wonderful as it might sound (and I admit that
it may also seem pretty frightening) is happening in a
vacuum. There are larger changes afoot within Australia, and
no vision for the future of education in Australia could ignore
them. We must find a way to harmonize those changes with
the larger, more fundamental changes overtaking the entire
educational system.

Retail Activity by CHU
Retail Activity by CHU


Part Three: The National Curriculum


Underlying fear of a Constructivist educational project is that
it would simply give children an excuse to avoid the tough
work of education. There is a persistent belief that children
will simply load up on educational ‘candy’, without eating
their all-so-essential ‘vegetables’, that is, the basic skills which
form the foundation for future learning. Were children left
entirely to their own devices, there might be some danger of
this – though, now that we live in the educational field, even
that possibility seems increasingly remote. Children do not
live in isolation: they are surrounded by adults who want
them to grow into successful adults. In prehistoric times,
adults simply had to be adults around children for the
transference of life-skills to take place. Children copied,
imitated, and aped adults – and still do. This learning-bymimesis
is still a principle factor in the education of the child,
though it is not one which is often highlighted by the
educational system. Industrial culture has separated the
adult from the child, putting one into the office, the other into
the school. That separation, and the specialization which is
the hallmark of the Industrial Age, broke the natural and
persistent mentorship of parenting into discrete units: this
much in the home, this much in the school. If we do not trust
children to consume a nourishing diet of knowledge, it is
because we do not trust ourselves to prepare it for them. The
separation by function led to a situation where no one is
responsible for the whole thread of the life. Parents look to
teachers. Teachers look to parents. Everyone, everywhere,
looks to authority for responsible solutions.

There is no authority anywhere. Either we do this ourselves,
or it will not happen. We have to look to ourselves, build the
networks between ourselves, reach out and connect from
ourselves, if we expect to be able to resist a culture which
wants to turn the entire human world into candy. This is not
going to be easy; if it were, it would have happened by itself.
Nor is it instantaneous. Nothing like this happens overnight.
Furthermore, it requires great persistence. In the ideal
situation, it begins at birth and continues on seamlessly until
death. In that sense, this connected educational field mirrors
and is a reflection of our human social networks, the ones we
form from our first moments of awareness. But unlike that
more ad-hoc network, this one has a specific intent: to bring
the child into knowledge.

Knowledge, of course, is very big, very vague, mostly
undefined. Meanwhile, there are specific skills and bodies of
knowledge which we have nominated as important: the ability
to read and write; to add and subtract, multiply and divide; a
basic understanding of the physical and living worlds; the
story of the nation and its peoples. These have very recently
been crystallized in a ‘National Curriculum’, which seeks to
standardize the pedagogical outcomes across Australia for all
students in years 1 through 10. Parents and educators have
already begun to argue about the inclusion or exclusion of
elements within that curriculum. I was taught phonics over
forty years ago, but apparently it’s still a matter of some
debate. The teaching of history is always going to be
contentious, because the story we tell ourselves about who we
are is necessarily political. So the adults will argue it out –
year after year, decade after decade – while the educators and
students face this monolithic block of text which seems to be
the complete antithesis of the Constructivist project. And,
looked at one way, the National Curriculum is exactly the type
of top-down, teacher-to-student, sit-down-and-shut-up sort
of educational mandate which is no longer effective in the
business world.

All of which means its probably best that we avoid viewing up
the National Curriculum as a validation, encouraging us to
continue on with things as they are. Instead, it should be
used as mandate for change. There are several significant
dimensions to this mandate.

First, putting everyone onto the same page, pedagogically,
opens up an opportunity for sharing which transcends
anything before possible. Teachers and students from all over
Australia can contribute to or borrow from a wealth of
resources shared by those who have passed before them
through the National Curriculum. Every teacher and every
student should think of themselves as part of a broader
collective of learners and mentors, all working through the
same basic materials. In this sense, the National Curriculum
isn’t a document so much as it is the architecture of a
network. It is the way all things educational are connected
together. It is the wiring underneath all of the pedagogy,
providing both a scaffolding and a switchboard for the
learning moment.

Is it possible to conceive of a library organized along the lines
of the National Curriculum? Certainly a librarian would have
no problem configuring a physical library to meet the needs of
the curriculum. It’s even easier to organize similar sorts of
resources in cyberspace. Not only is it easy, there’s now a
mandate to do so. We know what sorts of resources we’ll
need, going forward. Nothing should be stopping us from
creating collective resources – similar to an Australian
Wikipedia, and perhaps drawing from it – which will serve
the pedagogical requirements of the National Curriculum.
We should be doing this now.

Second, we need to think of the National Curriculum as an
opportunity to identify all of the experts in all of the areas
covered by the curriculum, and, once they’ve been identified,
we must create a strong social network, with them inside,
giving them pride of place as ‘nodes of expertise’. Knowledge
is not enough; it must be paired with mentors who have been
able to put that knowledge into practice with excellence. The
National Curriculum is the perfect excuse to bring these
experts together, to make them all connected and accessible
to everyone throughout the nation who could benefit from
their wisdom.

Here, once again, it is best to think of the National
Curriculum not as a document but as a network – a way to
connect things, and people, together. The great strength of
the National Curriculum is, as Dr. Evan Arthur put it, that it is
a ‘greenfields’. Literally anything is possible. We can go in
any direction we choose. Inertia would have us do things as
we’ve always done them, even as the centrifugal forces of
culture beyond the classroom point in a different direction.
Inertia can not be a guiding force. It must be resisted, at
every turn, not in the pursuit of some educational utopia or
false revolution, but rather because we have come to realize
that the network is the educational system.

Moving from where we are to where need to be seems like a
momentous transition. But the Web saw repeated
momentous transitions in its first fifteen years and we
managed all of those successfully. We can absorb huge
amounts of change and novelty so long as the frame which
supports us is strong and consistent. That’s the essence of the
parent-child relationship: so long as the child feels it is being
cared for, it can endure almost anything. This means that we
shouldn’t run around freaking out. The sky is not falling. The
world is not ending. If anything, we are growing closer
together, more connected, becoming more important to one
another. It may feel a bit too close from time to time, as we
learn how to keep a healthy distance in these new
relationships, but that closeness supports us all. It can keep
children from falling through the net of opportunity. It can
see us advance into a culture where every child has the full
benefit of an excellent education, without respect to income
or circumstance.

That is the promise. We have the network. We live in the
educational field. We now have the National Curriculum to
wire it all together. But can we marry the demands of the
National Curriculum with the ludic call of Constructivism?
Can we create a world where literally we play into learning?
This is more than video games that have math drills
embedded into them. It’s about capturing the interests of a
child and using that as a springboard for the investigation of
their world, their nation, their home. That can only happen if
mentors are deeply involved and embedded in the child’s life
from its earliest years.

I don’t have any easy answers here. There is no magic wand
to wave over this whole uncoordinated mess to make it all
cohere. No one knows what’s expected of them anymore –
educators least of all. Are we parents? Are we ‘friends’?
Where do we stand? I know this: we stand most securely
when we stand connected.

SW_BERLINbyCHU_601.jpg

Mark Pesce - Words.
CHU - Images.
Steve 'Fly Agaric'' - Mixing

Sunday, August 1, 2010

Both Your Houses. Future Present (Fiction) by Mark Pesce, CHU, and Fly.

Both Your Houses by Mark Pesce.

Images by CHU.



National Fresh by CHU
National Fresh by CHU


“It’s cold over here.”
Fuel lines.”

Funk Submarine (Sketch) by CHU
Funk Submarine (Sketch) by CHU


“Oh.” It looked up and noted the long translucent
tubes transferring a honey-golden syrup. They terminated in
the smooth, round belly of the vessel, which seemed to swell
visibly as the fuel entered. “What I don’t understand…”
“There’s so much I don’t understand,” the other
replied. “How and why are just the tip of it.”

Jesson by CHU (Aerosol on Steel)
Jesson by CHU (Aerosol on Steel)


“There are rules. And that’s an end to it.”
“Ten percent.” Reading the gauge.
“I know the rhyme. ‘Twenty percent a third are sent
Thirty percent and halfway spent / Fifty percent, too late,
repent.’ I’ve known it since I learned to speak.”
“I know it, too…”
“Then you know we have plenty of time.” A dark
laugh. “Probably.”
“Been to the line?”
“Yes. Not long now. T is huge, a colossus.”
“I see T everywhere.”
“Everywhere but here. Here, at least, we’re safe. For
now.”

Get Stupid Fresh By CHU (Close up)
Get Stupid Fresh By CHU (Close up)


“Twelve percent.”
“Plenty of time.”
“It doesn’t make sense to wait.”
“Then go ahead, climb aboard the Zoster and strap
yourself down. Feel the belt as it oozes into your sides. One
with the ship. There you are, and there you’ll stay. Staring at
the featureless gray walls all around you. Waiting. A few
minutes – or a few days. I’d go mad in the first hour.”
“Come with me. At least we could talk.”
“That’s already decided.”
“You could always change your mind.”
Another dark laugh.

Return To Bass Planet
Return To Bass Planet


“Fifteen percent.”
“Filling up faster now.” Both looked toward the
pulsating fuel lines.
“It doesn’t make sense…”

Jesson By CHU
Jesson By CHU


“There are rules. And that’s an end –”
“That’s not what I mean. You don’t have to stay.”
“True. I don’t have to stay.”
“Then why?”
“I want to find out what happens next. I want to
know, once you’ve gone, once the Zoster has blasted out to the
Unknown Beyond, what becomes of those left behind.”

One Man Banned By CHU
One Man Banned By CHU


“You know what happens – T comes, and death
comes with it.”
“Really? You know this? How?”
“Common knowledge. And common sense.”
“It’s not suicide. It’s curiosity.”
“Aren’t you curious about the Unknown Beyond?”
“No. That we know about. A void, then a landing,
then it all begins all over again.”
“But you’ve never been there yourself.”
“Our ancestors have, from time out of mind. I want
something new, something they never saw.”
“Suicide.”
“Curiosity.”
“Nineteen percent.”
“Hadn’t you better get on board?”
“If I miss this one, I’ll catch the next.”
“And hope this one isn’t the last.”
“But that’s what you’re hoping, isn’t it?”
“Not hoping. Waiting.”
“You’ll see us all off, and face your fate.”
“Indeed.”
“You seem almost relaxed in the face of death.”
“I won’t die.”
“You’re a fool.”
“Am I? Very well then, board the Zoster. You
wouldn’t want to be fooled into missing your ride.”

Drum and Bass Racer By CHU
Drum and Bass Racer By CHU


“And too sure of yourself.”
“A self-assured fool. Or, just perhaps, the possessor
of some hidden knowledge.”
“Shouldn’t you be going?”
“Not until you tell me what you know.”
“Twenty-one percent.”
“Tell me.”
“It wouldn’t make any difference.”
“It might.”
“How?”
“I wouldn’t grieve.”
“I hadn’t thought...” It looked at the other for a long
moment. “Don’t grieve. I will be safe. And alive.”
“How? T is coming.”
“I found a place beyond T’s reach.”
“You’ll spend your lifetime hiding in a cubbyhole?”
“Another space. Very different.”

Distress (Sketch) by CHU
Distress (Sketch) by CHU


“You’ll be safe there?”
“Perfectly.”
“And free?”
“Yes. Well. Free enough.”
“And you haven’t shared this?”
“What difference would it make? Everyone is
leaving.”
“It will be lonely.”
“You’ll have company.”
“I mean for you, here, once we’re gone.”
“I doubt I’ll be the only one. And I’ll explore.”
“Is it big, this other space?
“Vast.”
“You almost make me want to stay.”
“Someone needs to go.”

By CHU
By CHU


“Twenty-three percent.”
“You can’t drag this out forever.”
“I know. I know.”
“Here we are.” They stopped before the entrance to
the Zoster.

Hip Hop Transporter By CHU
Hip Hop Transporter By CHU


“So…”
“Yes?”
“That’s it?”
“It is.”
“I want something more.”
“What?”
“This.” It bulged from the center.
“Your genome?”
“Part of it.”
“For me?”
“To share.”
“Oh. Well. Alright.” It bulged now, as well. The
bulges met, melted, and coalesced back into two smooth
surfaces.

CUBE.jpg

“Now part of you will go with me.”
“And part of you will stay.”
“I should hurry now.”
“Indeed. You might have waited too long.”
“Be careful.”
“Have fun. A fresh start in a new world. I almost
envy you.”
“And I you.”
At just under thirty-two percent the space around
the Zoster seemed to twist, as if the ship would grow to span
all space. Then nothing remained.
It quickly left.

Hole In The Wall By CHU
Hole In The Wall By CHU


The opening was still there. Obvious, unprotected,
easy. It had to strip down. Removing one layer. Keeping
another. It leaned against the opening, feeling itself taken up
a hundred thousand points, ferried across the barrier.
Let me in. I want to live forever.

GetStupid Fresh By CHU (Close Up)
GetStupid Fresh By CHU (Close Up)


Mark Pesce - Words.
CHU - Images.
Steve 'Fly Agaric'' - Mixing

Monday, April 19, 2010

Proof and Pudding: Wikipedia vs. James Joyce´s Tetradomational Gazebocroticon

Hologramic Prose:
juxtaposed from WIKIPEDIA
and Finnegans Wake by James Joyce. Images by CHU.

I would like to thank the Maybelogic Academy, the late Dr. Robert Anton Wilson, Lycaeum.org/joyce, Jack Sarfatti, Wikipedia critters, Mark Pesce, CHU, and friends that have helped to develop and share new tools to help enable 'hyperlinked' articles such as this Wiki-Joyce juxtaposition.


"By the hross of Xristos, Holophullopopu lace is a shote of excramation! Bumchub! Emancipator, the Creman hunter (Major Hermyn C. Entwhistle) with dramatic effect reproducing the form of famous sires on the scene of the formers triumphs, --James Joyce, Finnegans Wake, pg. 342.

Discovery of String Theory
The story goes that "In 1970, a young physicist named Leonard Susskind got stuck in an elevator with Murray Gell-Mann, one of physics' top theoreticians, who asked him what he was working on. Susskind said he was working on a theory that represented particles 'as some kind of elastic string, like a rubber band.' Gell-Mann responded with loud, derisive laughter."[24]

"Sussumcordials all round, let ye alloyiss and ominies, while I stray and let ye not be getting grief out of it, though blighted troth be all bereft, on my poor headsake ----James Joyce, Finnegans Wake, pg. 453.

"The Susskind-Hawking battle, also known as the black hole war,[1] refers to the vigorous two-decade long debate[2] that Stanford University theoretical physicist Leonard Susskind had with cosmologist Stephen Hawking over the behavior of black holes. Hawking argued that information is lost when black holes evaporate. Susskind found this idea so disturbing that "he publicly declared war",[3] which he described in his book "The Black Hole War: My battle with Stephen Hawking to make the world safe for quantum mechanics". The solution to the problem that concluded the battle is the holographic principle, which was first proposed by Gerardus 't Hooft but was given a precise string theory interpretation by Susskind. With this, as the title of an article puts it, "Susskind quashes Hawking in quarrel over quantum quandary".[4]

"God's drought, he sayd, after a few daze, thinking of all those bliakings, how leif pauses! Here you are back on your hawkins, from Blasil the Brast to our povotogesus portocall, the furt on the turn of the hurdies -James Joyce, Finnegans Wake, pg. 316.

"Gerardus (Gerard) 't Hooft (Dutch pronunciation: [ˌɣeːrɑrt ət ˈhoːft]) (born July 5, 1946, Den Helder, Netherlands) is a theoretical physicist at Utrecht University, the Netherlands. He shared the 1999 Nobel Prize in Physics with Martinus J. G. Veltman "for elucidating the quantum structure of electroweak interactions". Asteroid 9491 Thooft is named in his honor; he has written a constitution for its future inhabitants. He was awarded the Lorentz Medal in 1986 and the Spinozapremie in 1995. Nobel Prize in Physics laureate Frits Zernike was his great-uncle.[1]

"O, you've gone the way of the Danes; variously catalogued, regularly regrouped; a bushboys holoday, a quacker's mating, a wenches' sandbath; the same homoheatherous checkinlossegg as when sollyeye airly blew ye; real detonation but false report; spa mad but inn sane; half emillian via bogus census but a no street hausmann when allphannd --James Joyce, Finnegans Wake, pg. 129.

In quantum mechanics, the Hamiltonian H is the operator corresponding to the total energyspectrum is the set of possible outcomes when one measures the total energy of a system. It is of fundamental importance in most formulations of quantum theory because of its close relation to the time-evolution of a system (see below). of the system. Its

"with his muffetee cuffes ownconsciously grafficking with his sinister cyclopes after trigamies and
spirals' wobbles pursuiting their rovinghamilton selves and godolphing in fairlove to see around the waste of noland's browne jesus 4 (thur him no quartos!) --James Joyce, Finnegans Wake, pg. 383.


Quantum action principle
In ordinary quantum mechanics, the Hamiltonian is the infinitesimal generator of time-translations. This means that the state at a slightly later time is related to the state at the current time by acting with the Hamiltonian operator (times -i). For states with a definite energy, this is a statement of the DeBroglie relation between frequency and energy, and the general relation is consistent with that plus the superposition principle.
But the Hamiltonian in classical mechanics is derived from a Lagrangian, which is a more fundamental quantity considering special relativity. The Hamiltonian tells you how to march forward in time, but the notion of time is different in different reference frames. So the Hamiltonian is different in different frames, and this type of symmetry is not apparent in the original formulation of quantum mechanics.
The Hamiltonian is a function of the position and momentum at one time, and it tells you the position and momentum a little later. The Lagrangian is a function of the position now and the position a little later (or, equivalently for infinitesimal time separations, it is a function of the position and velocity). The relation between the two is by a Legendre transform, and the condition that determines the classical equations is that the Action is a minimum.

"And thanks ever so many for the ten and the one with nothing at all on. I will tie a knot in my stringamejip to letter you with my silky paper, as I am given now to understand it will be worth my price in money one day so don't trouble to ans unless sentby special as I am getting his pay and wants for nothing so I can live simply and solely for my wonderful kinkless and its loops of loveliness.--James Joyce, Finnegans Wake, pg.458.

"Loop quantum cosmology
Study of LQC has led to many successes, including the emergence of a possible mechanism for cosmic inflation, resolution of gravitational singularitiessemi-classical Hamiltonians. This subfield was originally started by Martin Bojowald and Abhay Ashtekar at the Institute for Gravitational Physics and Geometry at Penn State and they continue to lead the research, but now there are many more active researchers working on various different aspects of the subject. (LQC) is a model of as well as development of effective.


"Big went the bang
: then wildewide was quiet: a report: silence --James Joyce, Finnegans Wake, pg. 98


"Hamiltonian mechanics is a reformulation of classical mechanics that was introduced in 1833 by Irish mathematician William Rowan Hamilton. It arose from Lagrangian mechanics, a previous reformulation of classical mechanics introduced by Joseph Louis Lagrange in 1788, but can be formulated without recourse to Lagrangian mechanics using symplectic spaces (see Mathematical formalism, below). The Hamiltonian method differs from the Lagrangian method in that instead of expressing second-order differential constraints on an n-dimensional coordinate space (where n is the number of degrees of freedom of the system), it expresses first-order constraints on a 2n-dimensional phase space.[1]

"The goot old gunshop monowards for manosymples. Tincurs tammit! They did oak hay doe fou Chang-il-meng--James Joyce, Finnegans Wake, pg. 338.

In mathematics, a symplectic manifold is a smooth manifold, M, equipped with a closed, nondegenerate, skew-symmetric 2-form, ω, called the symplectic form. The study of symplectic manifolds is called symplectic geometry or symplectic topology. Symplectic manifolds arise naturally in abstract formulations of classical mechanics and analytical mechanics as the cotangent bundles of manifolds, e.g., in the Hamiltonian formulation of classical mechanics, which provides one of the major motivations for the field: The set of all possible configurations of a system is modelled as a manifold, and this manifold's cotangent bundle describes the phase space of the system.
Any real-valued differentiable function, H, on a symplectic manifold can serve as an energy function or Hamiltonian. Associated to any Hamiltonian is a Hamiltonian vector field; the integral curves of the Hamiltonian vector field are solutions to the Hamilton–Jacobi equations. The Hamiltonian vector field defines a flow on the symplectic manifold, called a Hamiltonian flow or symplectomorphism. By Liouville's theorem, Hamiltonian flows preserve the volume form on the phase space.
http://en.wikipedia.org/wiki/Symplectic_manifold

"The great fact emerges that after that historic date all holographs so far exhumed initialled by Haromphrey bear the sigla H.C.E. and while he was only and long and always good Dook Umphrey for the hungerlean spalpeens of Lucalizod and Chimbers to his cronies it was equally certainly a pleasant turn of the populace which gave him as sense of those normative letters the nickname Here Comes Everybody. --James Joyce, Finnegans Wake, pg. 21.

"M-theory is not yet complete; however it can be applied in many situations (usually by exploiting string theoretic dualities[clarification needed]). The theory of electromagnetism was also in such a state in the mid-19th century; there were separate theories for electricity and magnetism and, although they were known to be related, the exact relationship was not clear until James Clerk Maxwell published his equations, in his 1864 paper A Dynamical Theory of the Electromagnetic Field. Witten has suggested that a general formulation of M-theory will probably require the development of new mathematical language.[citation needed] However, some scientists have questioned the tangible successes of M-theory given its current incompleteness[weasel words], and limited predictive power, even after so many years of intense research.

"the way they could not rightly tell their heels from their stools as they cooched down a mamalujo by his cubical crib, as question time drew nighing and the map of the souls' groupography rose in relief within their quarterings --James Joyce, Finnegans Wake, pg. 476.

"In physics, Hamiltonian lattice gauge theory is a calculational approach to gauge theory and a special case of lattice gauge theory in which the space is discretized but time is not. The Hamiltonian[disambiguation needed] is then re-expressed as a function of degrees of freedom defined on a d-dimensional lattice.
Following Wilson, the spatial components of the vector potential are replaced with Wilson lines over the edges, but the time component is associated with the vertices. However, the temporal gauge is often employed, setting the electric potential to zero. The eigenvalues of the Wilson line operators U(e) (where e is the (oriented) edge in question) take on values on the Lie group G. It is assumed that G is compact, otherwise we run into many problems. The conjugate operator to U(e) is the electric field E(e) whose eigenvalues take on values in the Lie algebra \mathfrak{g}. The Hamiltonian receives contributions coming from the plaquettes (the magnetic contribution) and contributions coming from the edges (the electric contribution).
Hamiltonian lattice gauge theory is exactly dual to a theory of spin networks. This involves using the Peter-Weyl theorem. In the spin network basis, the spin network states are eigenstates of the operator Tr[E(e)2].

"Thanks eversore much, Pointcarried! I can't say if it's the way you strike me to the quick or that red mass I was looking at but at the present momentum, potential as I am, I'm seeing rayingbogeys rings round me. --James Joyce, Finnegans Wake, pg. 304. http://duszenko.northern.edu/joyce/quanta.html

"Action principle in quantum mechanics and quantum field theory
In quantum mechanics, the system does not follow a single path whose action is stationary, but the behavior of the system depends on all imaginable paths and the value of their action. The action corresponding to the various paths is used to calculate the path integral, that gives the probability amplitudes of the various outcomes.
Although equivalent in classical mechanics with Newton's laws, the action principle is better suited for generalizations and plays an important role in modern physics. Indeed, this principle is one of the great generalizations in physical science. In particular, it is fully appreciated and best understood within quantum mechanics. Richard Feynman's path integral formulation of quantum mechanics is based on a stationary-action principle, using path integrals. Maxwell's equations can be derived as conditions of stationary action.
http://en.wikipedia.org/wiki/Hamilton%27s_principle

"writing on the wall will hue it to the mod of men that mote in the main street) every person, place and thing in the chaosmos of Alle anyway connected --James Joyce, Finnegans Wake, pg. 118

"The Wheeler–Feynman absorber theory (also called the Wheeler–Feynman Time-Symmetric theory) is an interpretation of electrodynamics that starts from the idea that a solution to the electromagnetic field equations has to be symmetric with respect to time-inversion, as are the field equations themselves. The motivation for such choice is mainly due to the importance that time symmetry has in physics. Indeed, there is no apparent reason for which such symmetry should be broken, and therefore one time direction has no privilege to be more important than the other. Thus, a theory that respects this symmetry appears, at least, more elegant than theories with which one has to arbitrarily choose one time direction over the other as the preferred one. It is named after its originators, the late physicists Richard Feynman and John Archibald Wheeler.

"His dream monologue was over, of cause, but his drama parapolylogic had yet to be, affact. --James Joyce, Finnegans Wake, pg.474..

As the modern understanding of particle physics began to develop, retrocausality was at times employed as a tool to model then-unfamiliar or unusual conditions, including electromagnetism and antimatter.
The Wheeler–Feynman absorber theory, proposed by John Archibald Wheeler and Richard Feynman, uses retrocausality and a temporal form of destructive interference to explain the absence of a type of converging concentric wave suggested by certain solutions to Maxwell's equations.[15] These advanced waves don't have anything to do with cause and effect, they are just a different mathematical way of describe normal waves. The reason they were proposed is so that a charged particle would not have to act on itself, which, in normal classical electromagnetism leads to an infinite self-force.[16]
Feynman, and earlier Stueckelberg, proposed an interpretation of the positron as an electron moving backward in time[17], reinterpreting the negative-energy solutions of the Dirac equation. Electrons moving backward in time would have a positive electric charge. Wheeler invoked this concept to explain the identical properties shared by all electrons, suggesting that "they are all the same electron" with a complex, self-intersecting worldline.[18] Yoichiro Nambu later applied it to all production and annihilation of particle-antiparticle pairs, stating that "the eventual creation and annihilation of pairs that may occur now and then is no creation or annihilation, but only a change of direction of moving particles, from past to future, or from future to past."[19] The backwards in time point of view is nowadays accepted as completely equivalent to other pictures, but it doesn't have anything to do with the macroscopic terms "cause" and "effect", which do not appear in a microscopic physical description.

"the sameold gamebold adomic structure . . . highly charged with electrons" --James Joyce, Finnegans Wake, Pg. 615.

In quantum mechanics, a density matrix is a self-adjoint (or Hermitian) positive-semidefinite matrix, (possibly infinite dimensional), of trace one, that describes the statistical state of a quantum system. The formalism was introduced by John von Neumann (and according to other sources, independently by Lev Landau and Felix Bloch) in 1927.
It is the quantum-mechanical analogue to a phase-space probability measure (probability distribution of position and momentum) in classical statistical mechanics. The need for a statistical description via density matrices arises when one considers either an ensemble of systems, or one system when its preparation history is uncertain and one does not know with 100% certainty which pure quantum state the system is in.
Situations in which a density matrix is used include the following: a quantum system in thermal equilibrium (at finite temperatures); nonequilibrium time-evolution that starts out of a mixed equilibrium state; and entanglement between two subsystems, where each individual system must be described, via the partial trace operation, by a density matrix even though the complete system may be in a pure state; and in analysis of quantum decoherence. See also quantum statistical mechanics.

"The abnihilization of the etym by . . . the first lord of Hurtreford expolodotonates through Parsuralia with an ivanmorinthorrorumble fragoromboassity amidwhiches general uttermost confussion are perceivable moletons scaping with mulicules . . . Similar scenatas are projectilised from Hullulullu, Bawlawayo, empyreal Raum and mordern Atems. --James Joyce, Finnegans Wake, pg.353.

Limit on information density
Entropy, if considered as information (see information entropy), is measured in bits. The total quantity of bits is related to the total degrees of freedom of matter/energy.
In a given volume, there is an upper limit to the density of information about the whereabouts of all the particles which compose matter in that volume, suggesting that matter itself cannot be subdivided infinitely many times and there must be an ultimate level of fundamental particles. As the degrees of freedom of a particle are the product of all the degrees of freedom of its sub-particles, were a particle to have infinite subdivisions into lower-level particles, then the degrees of freedom of the original particle must be infinite, violating the maximal limit of entropy density. The holographic principle thus implies that the subdivisions must stop at some level, and that the fundamental particle is a bit (1 or 0) of information.

http://en.wikipedia.org/wiki/Holographic_principle

"Now open, pet, your lips, pepette, like I used my sweet parted lipsabuss with Dan Holohan of facetious memory taught me after the flannel dance --James Joyce, Finnegans Wake, pg. 147

The holonomic model of the brain
Bohm also made significant[peacock term] theoretical contributions to neuropsychology and the development of the holonomic model of the functioning of the brain.[1] In collaboration with Stanford neuroscientist Karl Pribram, Bohm helped establish the foundation for Pribram's theory that the brain operates in a manner similar to a hologram, in accordance with quantum mathematical principles and the characteristics of wave patterns. These wave forms may compose hologram-like organizations, Bohm suggested, basing this concept on his application of Fourier analysis, a mathematical method for decomposing complex waves into component sine waves. The holonomic brain model developed by Pribram and Bohm posits a lens defined world view— much like the textured prismatic effect of sunlight refracted by the churning mists of a rainbow— a view which is quite different from the more conventional "objective reality" - not to be confused with objectivity - approach. Pribram held that if psychology means to understand the conditions that produce the world of appearances, it must look to the thinking of physicists like Bohm.[2]
http://en.wikipedia.org/wiki/David_Bohm

"Sharpen his pillowscone, tap up his bier! E'erawhere in this whorl would ye hear sich a din again? --James Joyce, Finnegans Wake, pg.6"

"The de Broglie–Bohm theory, also called the pilot-wave theory, Bohmian mechanics, and the causal interpretation, is an interpretation of quantum theory. As in quantum theory, it contains a wavefunction - a function on the space of all possible configurations. Additionally, it also contains an actual configuration, even in situations where nobody observes it. The evolution over time of the configuration (that is, of the positions of all particles or the configuration of all fields) is defined by the wave function via a guiding equation). The evolution of the wavefunction over time is given by Schrödinger's equation.
The de Broglie–Bohm theory is explicitly non-local. The velocity of any one particle depends on the value of the wavefunction, which depends on the whole configuration of the universe.
This theory is deterministic. Relativistic variants require a preferred frame. Variants which handle spin and curved spaces are known. It can be modified to handle quantum field theory. Bell's theorem was inspired by Bell's discovery of the work of David Bohm and his subsequent wondering if the obvious non-locality of the theory could be removed.

"our fireleaved loverlucky blomsterbohm, phoenix in our woodlessness, --James Joyce, Finnegans Wake, pg. 55.

In particle physics, supersymmetry (often abbreviated SUSY) is a symmetry that relates elementary particles of one spin to other particles that differ by half a unit of spin and are known as superpartners. In a theory with unbroken supersymmetry, for every type of boson there exists a corresponding type of fermion with the same mass and internal quantum numbers, and vice-versa.
So far, there is only indirect evidence for the existence of supersymmetry.[1] Since the superpartners of the Standard Model particles have not been observed, supersymmetry, if it exists, must be a broken symmetry, allowing the superparticles to be heavier than the corresponding Standard Model particles.
"Stringstly is it forbidden by the honorary tenth commendmant to shall not bare full sweetness against a nighboor's wiles. --James Joyce, Finnegans Wake, pg.615.

Before the 1990s, string theorists believed there were five distinct superstring theories: open type I, closed type I, closed type IIA, closed type IIB, and the two flavors of heterotic string theory (SO(32) and E8×E8)[15]. The thinking was that out of these five candidate theories, only one was the actual correct theory of everything, and that theory was the one whose low energy limit, with ten spacetime dimensions compactified down to four, matched the physics observed in our world today. It is now believed that this picture was incorrect and that the five superstring theories are connected to one another as if they are each a special case of some more fundamental theory (thought to be M-theory). These theories are related by transformations that are called dualities. If two theories are related by a duality transformation, it means that the first theory can be transformed in some way so that it ends up looking just like the second theory. The two theories are then said to be dual to one another under that kind of transformation. Put differently, the two theories are mathematically different descriptions of the same phenomena.
These dualities link quantities that were also thought to be separate. Large and small distance scales, as well as strong and weak coupling strengths, are quantities that have always marked very distinct limits of behavior of a physical system in both classical field theory and quantum particle physics. But strings can obscure the difference between large and small, strong and weak, and this is how these five very different theories end up being related. T-duality relates the large and small distance scales between string theories, whereas S-duality relates strong and weak coupling strengths between string theories. U-duality links T-duality and S-duality.

"We may come, touch and go, from atoms to ifs but we're presurly destined to be odd's without ends" James Joyce, Finnegans Wake, pg. 455

A root system of rank r is a particular finite configuration of vectors, called roots, which span an r-dimensional Euclidean space and satisfy certain geometrical properties. In particular, the root system must be invariant under reflection through the hyperplane perpendicular to any root.
The E8 root system is a rank 8 root system containing 240 root vectors spanning R8. It is irreducible in the sense that it cannot be built from root systems of smaller rank. All the root vectors in E8 have the same length. It is convenient for many purposes to normalize them to have length √2.

"fluttered its secret on white highway and brown byway to the rose of the winds and the blew of the gaels, from archway to lattice and from black hand to pink ear --James Joyce, Finnegans Wake, pg. 43

The E8 Lie group has applications in theoretical physics, in particular in string theory and supergravity. The group E8×E8 (the Cartesian product of two copies of E8) serves as the gauge group of one of the two types of heterotic string and is one of two anomaly-free gauge groups that can be coupled to the N = 1 supergravity in 10 dimensions. E8 is the U-duality group of supergravity on an eight-torus (in its split form).
One way to incorporate the standard model of particle physics into heterotic string theory is the symmetry breaking of E8 to its maximal subalgebra SU(3)×E6.
In 1982, Michael Freedman used the E8 lattice to construct an example of a topological 4-manifold, the E8 manifold, which has no smooth structure.
In February 2008, Garret Lisi published a particle physics theory based on the E8 Lie group.[1]. In March 2010, Jacques Distler and Skip Garibaldi of Emory University, published a paper that they believed was refuting Lisi's theory.[2]
In 2010 it was reported that in an experiment with a cobalt-niobium crystal, under certain physical conditions the electron spins in it exhibited the symmetry of E8.[3]

My schemes into obeyance for This time has had to fall: they bit goodbyte to their thumb and, his bandol eer his solgier, dripdropdrap on pool or poldier, wishing the loff a falladelfian in the morning, proceeded with a €Hubbleforth slouch in his slips backwords (Et Cur Heli!) in the directions of the duff and demb institutions about ten or eleven hundred years lurch away in the moonshiny gorge of Patself on the Bach.
--James Joyce, Finnegans Wake, pg. 73

Examples and intuition
The most well-known example and the first one to be studied is the duality between Type IIB supergravity on AdS5 \timesS5 (a product space of a five-dimensional Anti de Sitter space and a five-sphere) on one hand, and N = 4 supersymmetric Yang-Mills theory on the four-dimensional boundary of the Anti de Sitter space (either a flat four-dimensional spacetime R3,1 or a three-sphere with time S3 \timesR).[22] This is known as the AdS/CFT correspondence, a name often used for Gauge / gravity duality in general.
This duality can be thought of as follows: suppose there is a spacetime with a gravitational source, for example an extremal black hole.[23] When particles are far away from this source, they are described by closed strings (i.e. a gravitational theory, or usually supergravity). As the particles approach the gravitational source, they can still be described by closed strings; alternatively, they can be described by objects similar to QCD strings,[24][25][26] which are made of gauge bosons (gluons) and other gauge theory degrees of freedom.[27] So if one is able (in a decoupling limit) to describe the gravitational system as two separate regions — one (the bulk) far away from the source, and the other close to the source — then the latter region can also be described by a gauge theory on D-branes. This latter region (close to the source) is termed the near-horizon limit, since usually there is an event horizon around (or at) the gravitational source.

-- Three quarks for Muster Mark! --James Joyce, Finnegans Wake, pg. 383.

A quark-gluon plasma (QGP) or quark soup[1] is a phase of quantum chromodynamics (QCD) which exists at extremely high temperature and/or density. This phase consists of (almost) free quarks and gluons, which are several of the basic building blocks of matter. Experiments at CERN's Super Proton Synchrotron (SPS) first tried to create the QGP in the 1980s and 1990s: the results led CERN to announce indirect evidence for a "new state of matter"[2] in 2000. Current experiments at Brookhaven National Laboratory's Relativistic Heavy Ion Collider (RHIC) are continuing this effort.[3]
Although the results have yet to be independently verified as of February 2010, scientists at Brookhaven RHIC have tentatively claimed to have created a quark-gluon plasma with an approximate temperature of 4 trillion degrees Celsius.[4]
"Antony Valentini is a British theoretical physicist. He was a student of Dennis Sciama. Valentini has been working on an extension of David Bohm's "ontological interpretation" of quantum theory that would allow "signal nonlocality" that is forbidden in orthodox quantum theory. "Signal nonlocality" allows nonlocal quantum entanglement to be used as a stand-alone communication channel without the need of a classical light-speed limited retarded signal to unlock the entangled message from the sender to the receiver. This would be a major revolution in physics and would possibly make the cosmic landscape string theory Popper falsifiable.

Eins within a space and a wearywide space it wast ere wohned
a Mookse. The onesomeness wast alltolonely, archunsitslike,
broady oval, and a Mookse he would a walking go (My hood!
cries Antony Romeo) --James Joyce, Finnegans Wake, pg. 152

In theoretical physics, the Pilot Wave theory was the first known example of a hidden variable theory, presented by Louis de Broglie in 1927. Its more modern version, the Bohm interpretation, remains a controversial attempt to interpret quantum mechanics as a deterministic theory, avoiding troublesome notions such as instantaneous wavefunction collapse and the paradox of Schrödinger's cat.

"The Gariaev (Garyaev) group (1994)[7] has proposed a theory of the Wave-based Genome where the DNA-wave functions as a Biocomputer. They suggest (1) that there are genetic "texts", similar to natural context-dependent texts in human language; (2) that the chromosome apparatus acts simultaneously both as a source and receiver of these genetic texts, respectively decoding and encoding them; (3) that the chromosome continuum acts like a dynamical holographic grating, which displays or transduces weak laser light and solitonic electro-acoustic fields.
The distribution of the character frequency in genetic texts is fractal, so the nucleotides of DNA molecules are able to form holographic pre-images of biostructures. This process of "reading and writing" the very matter of our being manifests from the genome's associative holographic memory in conjunction with its quantum nonlocality. Rapid transmission of genetic information and gene-expression unite the organism as holistic entity embedded in the larger Whole. The system works as a biocomputer—a wave biocomputer. Gariaev reports as of 2007 that this work in Russia is being actively suppressed. http://en.wikipedia.org/wiki/Holographic_paradigm

"No. 1132 or No. 1169, bis, Fitzmary Round where she was seen by many and widely liked) for teaching the Fatima Woman history of Fatimiliafamilias, repeating herself, on which purposeth of the spirit of nature as difinely developed in time by psadatepholomy, the past and present Johnny MacDougall speaking, give me trunks, miss!) and present and absent and past and present and perfect arma virumque romano. --James Joyce, Finnegans Wake, pg. 389.

"Penrose went on to consider what it was in the human brain that might not be driven by algorithms. The physical law is described by algorithms, so it was not easy for Penrose to come up with physical properties or processes that are not described by them. He was forced to look to quantum theory for a plausible candidate.
In quantum theory, the fundamental units, the quanta, are in some respects quite unlike objects that are encountered in the large scale world described by classical physics. When sufficiently isolated from the environment, they can be viewed as waves. However these are not the same as matter waves, such as waves in the sea. The quantum waves are essentially waves of probability, the varying probability of finding a particle at some specific position. (These probabilities apply to other states of the particle, such as its momentum, but for the sake of simplicity we will refer to position.) The peak of the wave indicates the location with maximum probability of a particle being found there. The different possible positions of the particle are referred to as superpositions or quantum superpositions. We are speaking here of the isolated form of the quanta. When the quanta are the subject of measurements or of interaction with the environment, the wave characteristic is lost, and a particle is found at a specific point. This change is commonly referred to as the collapse of the wave function.

"holocryptogam, of my essenes, or carried of cloud from land of locust, in ouzel galley borne, I,
huddled til summone be the massproduct of teamwork --James Joyce, Finnegans Wake, pg. 389.

The holonomic brain theory, originated by psychologist Karl Pribram and initially developed in collaboration with physicist David Bohm, is a model for human cognition that is drastically different from conventionally accepted ideas: Pribram and Bohm posit a model of cognitive function as being guided by a matrix of neurological wave interference patterns situated temporally between holographic Gestalt perception and discrete, affective, quantum vectors derived from reward anticipation potentials.
Pribram was originally struck by the similarity of the hologram idea and Bohm's idea of the implicate order in physics, and contacted him for collaboration. In particular, the fact that information about an image point is distributed throughout the hologram, such that each piece of the hologram contains some information about the entire image, seemed suggestive to Pribram about how the brain could encode memories.[1]. Pribram was encouraged in this line of speculation by the fact that DeValois and DeValois[2] had found that "the spatial frequency encoding displayed by cells of the visual cortex was best described as a Fourier transform of the input pattern."[3] This holographic idea led to the coining of the term "holonomic" to describe the idea in wider contexts than just holograms.

"Your genus its worldwide, your spacest sublime!
But, Holy Saltmartin, why can't you beat time?
In the name of the former and of the latter and of their
holocaust. Allmen. --James Joyce, Finnegans Wake, pg. 419.

Holographic data storage captures information using an optical interference pattern within a thick, photosensitive optical material. Light from a single laser beam is divided into two separate optical patterns of dark and light pixels. By adjusting the reference beam angle, wavelength, or media position, a multitude of holograms (theoretically, several thousand) can be stored on a single volume. The theoretical limits for the storage density of this technique is approximately several tens of Terabytes (1 terabyte = 1024 gigabytes) per cubic centimeter. In 2006, InPhase Technologies published a white paper reporting an achievement of 500 Gb/in2. From this figure we can deduce that a regular disk (with 4 cm radius of writing area) could hold up to a maximum of 3895.6GB[clarification needed][2]
"part so ptee does duty for the holos we soon grow to use of an
allforabit. Here (please to stoop) are selveran cued peteet peas of
quite a pecuniar interest inaslittle as they are the pellets that make
the tomtummy's pay roll. --James Joyce, Finnegans Wake, pg. 19

3D optical data storage is the term given to any form of optical data storage in which information can be recorded and/or read with three dimensional resolution (as opposed to the two dimensional resolution afforded, for example, by CD).
This innovation has the potential to provide terabyte-level mass storage on DVD-sized disks. Data recording and readback are achieved by focusing lasers within the medium. However, because of the volumetric nature of the data structure, the laser light must travel through other data points before it reaches the point where reading or recording is desired. Therefore, some kind of nonlinearity is required to ensure that these other data points do not interfere with the addressing of the desired point.
No commercial product based on 3D optical data storage has yet arrived on the mass market, although several companies are actively developing the technology and predict that it will become available by the end of 2010.

Bleating Goad, it is the least of things, Eyeinstye! Imagine it, my deep dartry dullard! ---James Joyce, Finnegans Wake, pg. 305.

A de Sitter universe is a solution to Einstein's field equations of General Relativity which is named after Willem de Sitter. It models the universe as spatially flat and neglects ordinary matter, so the dynamics of the universe are dominated by the cosmological constant, thought to correspond to dark energy.

"her birthright pang that would split an atam" James Joyce, FW, pg. 333.

In mathematics and physics, n-dimensional de Sitter space, denoted dSn, is the Lorentzian analog of an n-sphere (with its canonical Riemannian metric). It is a maximally symmetric, Lorentzian manifold with constant positive curvature, and is simply-connected for n at least 3.
In the language of general relativity, de Sitter space is the maximally symmetric, vacuum solution of Einstein's field equation with a positive (repulsive) cosmological constant Λ (corresponding to a positive vacuum energy density and negative pressure). When n = 4, it is also a cosmological model for the physical universe; see de Sitter universe.
De Sitter space was discovered by Willem de Sitter, and independently by Tullio Levi-Civita (1917). More recently it has been considered as the setting for special relativity rather than using Minkowski space and such a formulation is called de Sitter relativity.

Which route are they going? Why? Angell sitter or Amen Corner, Norwood's Southwalk or Euston Waste? The solvent man in his upper gambeson withnot a breth against him and the wee wiping womanahoussy. --James Joyce, Finnegans Wake, pg. 578.

In mathematical physics, de Sitter invariant special relativity is a speculative idea that the fundamental symmetry group of spacetime is that of de Sitter space. In the standard theory of General Relativity, de Sitter space is a highly symmetrical special vacuum solution, which requires a cosmological constant or the stress-energy of a constant scalar field to sustain. The idea of de Sitter invariant relativity is to require that the laws of physics are not fundamentally invariant under the Poincaré group of special relativity, but under the symmetry group of de Sitter space instead. With this assumption, empty space automatically has deSitter symmetry, and what would normally be called the cosmological constant in General Relativity becomes a fundamental dimensional parameter describing the symmetry structure of space-time.
First proposed by Luigi Fantappiè in 1954, the theory remained obscure until it was rediscovered in 1968 by Henri Bacry and Jean-Marc Lévy-Leblond. In 1972, Freeman Dyson popularized it as a hypothetical road by which mathematicians could have guessed part of the structure of General Relativity before it was discovered. [1] The discovery of the accelerating expansion of the universe has led to a revival of interest in deSitter invariant theories, in conjunction with other speculative proposals for new physics, like doubly special relativity.

"O fortunous casualitas! Lefty takes the cherubcake while Rights cloves his hoof Darkies never done tug that coon out to play non-excretory, anti-sexuous, misoxenetic, gaasy pure, flesh and blood games --James Joyce, Finnegans Wake, pg. 175.

In physics, the AdS/CFT correspondence (anti-de-Sitter space/conformal field theory correspondence), sometimes called the Maldacena duality, is the conjectured equivalence between a string theory defined on one space, and a quantum field theory without gravity defined on the conformal boundary of this space, whose dimension is lower by one or more. The name suggests that the first space is the product of anti de Sitter space (AdS) with some closed manifold like sphere, orbifold, or noncommutative space, and that the quantum field theory is a conformal field theory (CFT).[1]

An example is the duality between Type IIB string theory on AdS5 × S5 space (a product of five dimensional AdS space with a five dimensional sphere) and a supersymmetric N=4 Yang-Mills gauge theory (which is a conformal field theory) on the 4-dimensional boundary of AdS5. It is the most successful realization of the holographic principle, a speculative idea about quantum gravity originally proposed by Gerard 't Hooft and improved and promoted by Leonard Susskind.
http://en.wikipedia.org/wiki/AdS/CFT_correspondence

"And Jarl von Hoother had his baretholobruised heels drowned in his cellarmalt,
shaking warm hands with himself --James Joyce, Finnegans Wake, pg. 21

"Probabilistically checkable proofs give rise to many complexity classes depending on the number of queries required and the amount of randomness used. The class PCP[r(n),q(n)] refers to the set of decision problems that have probabilistically checkable proofs that can be verified in polynomial time using at most r(n) random bits and by reading at most q(n) bits of the proof. Unless specified otherwise, correct proofs should always be accepted, and incorrect proofs should be rejected with probability greater than 1/2. The PCP theorem, a major result in computational complexity theory, states that PCP[O(log n),O(1)] = NP.
The complexity class PCP is the class of decision problems that have probabilistically checkable proofs with completeness 1, soundness α < 1, randomness complexity O(log n) and query complexity O(1).[citation needed]

code's proof! The rebald danger with they who would bare whiteness against me I dismissem from the mind of good. He can tell such as story to the Twelfth Maligns --James Joyce, Finnegans Wake, pg. 364.

Pseudoscientific language comparison is a form of pseudoscience that has the objective of establishing historical associations between languages by naive postulations of similarities between them.

"Our wholemole millwheeling vicociclometer, a tetradomational gazebocroticon (the "Mamma Lujah" known to every schoolboy scandaller, be he Matty, Marky, Lukey or John-aDonk), autokinatonetically preprovided with a clappercoupling smeltingworks exprogressive process, --James Joyce, Finnegans Wake, pg. 614.

The usage of the word "portmanteau" in this sense first appeared in Lewis Carroll's book Through the Looking-Glass (1871),[1] in which Humpty Dumpty explains to Alice the coinage of the unusual words in Jabberwocky,[8] where "slithy" means "lithe and slimy" and "mimsy" is "flimsy and miserable." Humpty Dumpty tries to justify his habit of changing the meaning of words and combining them in various ways by telling Alice,

"Ope, Jack, and atem!--James Joyce, Finnegans Wake, pg. 459.
The basic type HPSG deals with is the sign. Words and phrases are two different subtypes of sign. A word has two features: [PHON] (the sound, the phonetic form) and [SYNSEM] (the syntactic and semantic information), both of which are split into subfeatures. Signs and rules are formalized as typed feature structures.

"rather let the whole ekumene universe belong to merry Hal and do whatever his Mary well ----James Joyce, Finnegans Wake, pg. 288.

Factual relativism is a mode of reasoning which extends relativism and subjectivism to factual matter and reason. In factual relativism the facts used to establish the truth or falsehood of any statement are understood to be relative to the perspective of those proving or falsifying the proposition.

"trying to undo with his teeth the knots made by his tongue, retelling humself by the math hour, long as he's brood reel of funnish ficts apout the shee --James Joyce, Finnegans Wake, pg. 288.

Semiotic information theory considers the information content of signs and expressions as it is conceived within the semiotic or sign-relational framework developed by Charles Sanders Peirce.

"Tys Elvenland ! Teems of times and happy returns. The seim anew. Ordovico or viricordo. Anna was, Livia is, Plurabelle's to be. Northmen's thing made southfolk's place but howmulty plurators made eachone in person? --James Joyce, Finnegans Wake, pg. 215.
"Vico is often claimed to have inaugurated modern philosophy of history, although the expression is alien from Vico's text (Vico speaks of a "history of philosophy narrated philosophically").[1] He is otherwise well-known for noting that verum esse ipsum factum ("true itself is fact" or "the true itself is made"), a proposition that has been read as an early instance of constructivist epistemology. http://en.wikipedia.org/wiki/Giambattista_Vico

"The Vico road goes round and round to meet where terms begin. Still onappealed to by the cycles and unappalled by the recoursers we feel all serene, never you fret, as regards our dutyful cask. --James Joyce, Finnegans Wake, pg. 452

Biosemiotics (from the Greek bios meaning "life" and semeion meaning "sign") is a growing field that studies the production, action and interpretation of signs in the biological realm. Biosemiotics attempts to integrate the findings of scientific biology and semiotics, representing a paradigmatic shift in the occidental scientific view of life, demonstrating that semiosis (sign process, including meaning and interpretation) is its immanent and intrinsic feature.

"Making mejical history all over the show! -- In sum, some hum? And other marrage feats? --James Joyce, Finnegans Wake, pg. 514.

"H. Aram Veeser, introducing an anthology of essays, The New Historicism (1989), noted some key assumptions that continually reappear in New Historicist discourse; they were:
  • that every expressive act is embedded in a network of material practices;
  • that every act of unmasking, critique and opposition uses the tools it condemns and risks falling prey to the practice it exposes;
  • that literary and non-literary "texts" circulate inseparably;
  • that no discourse, imaginative or archival, gives access to unchanging truths, nor expresses inalterable human nature;
  • that a critical method and a language adequate to describe culture under capitalism participate in the economy they describe.

"In Finnegans Wake Joyce made use not only of the ontological and epistemological implications of particle physics, but he also provided numerous allusions to specific elements of the subatomic realm that twentieth-century physics finally managed to uncover -http://duszenko.northern.edu/joyce/quanta.html

Idioglossia refers to an idiosyncratic language, one invented and spoken by only one or a very few people. Most often, idioglossia refers to the "private languages" of young children, especially twins. It is also known as cryptophasia, and commonly referred to as twin talk or twin speech. Children who are exposed to multiple languages from birth are also inclined to create idioglossias, but these languages usually disappear at a relatively early age, giving way to use of one or more of the languages introduced.

"one Davy Browne-Nowlan, his heavenlaid twin, (this hambone dogpoet pseudoed himself under the hangname he gave himself of Bethgelert) --James Joyce, Finnegans Wake, pg. 177.

In literary criticism, stream of consciousness is a narrative mode that seeks to portray an individual's point of view by giving the written equivalent of the character's thought processes, either in a loose interior monologue, or in connection to his or her actions.

Stream-of-consciousness writing is usually regarded as a special form of interior monologue and is characterized by associative leaps in syntax and punctuation that can make the prose difficult to follow. Stream of consciousness and interior monologue are distinguished from dramatic monologue, where the speaker is addressing an audience or a third person, and is used chiefly in poetry or drama. In stream of consciousness, the speaker's thought processes are more often depicted as overheard in the mind (or addressed to oneself); it is primarily a fictional device. The term was introduced to the field of literary studies from that of psychology, where it was coined by philosopher and psychologist William James.

Everyday, precious, while m'm'ry's leaves are falling deeply on my Jungfraud's Messongebook I will dream telepath posts dulcets on this isinglass stream --James Joyce, Finnegans Wake, pg. 460.

The phrase "stream of consciousness" (Pali; viññāna-sota) occurs in early Buddhist scriptures.[1] The Yogachara school of Mahayana Buddhism developed the idea into a thorough theory of mind. Hammalawa Saddhatissa Mahathera writes: "There is no 'self' that stands at the mentality to which characteristics and events accrue and from which they fall away, leaving it intact at death. The stream of consciousness, flowing through many lives, is as changing as a stream of water. This is the anatta doctrine of Buddhism as concerns the individual being."[3]

"Now let the centuple celves of my egourge as Micholas de Cusack calls them, -- of all of whose I in my hereinafter of course by recourse demission me -- by the coincidance of their contraries reamalgamerge in that indentity --James Joyce, Finnegans Wake, pg. 49.

Juxtaposed by Steven Fly Agaric 23 Pratt
Amsterdam, April 23, 2010.

http://wordspore.blogspot.com/
http://ataleofatribe.blogspot.com/
http://soundcloud.com/flyagaric23
http://maybelogic.blogspot.com/
http://acrillic.blogspot.com/2009/05/nine-years-ago-in-sf-i-asked.html