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Phase III - Stealth Is.

“In the quietude, you may find solace in knowing.” “In knowing, you will find the solace of quietude.”

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Category: cybermagick

WHEN the Sloan Digital Sky Survey started work in 2000, its telescope in New Mexico collected more data in its first few weeks than had been amassed in the entire history of astronomy. Now, a decade later, its archive contains a whopping 140 terabytes of information. A successor, the Large Synoptic Survey Telescope, due to come on stream in Chile in 2016, will acquire that quantity of data every five days.

Such astronomical amounts of information can be found closer to Earth too. Wal-Mart, a retail giant, handles more than 1m customer transactions every hour, feeding databases estimated at more than 2.5 petabytes—the equivalent of 167 times the books in America’s Library of Congress (see article for an explanation of how data are quantified). Facebook, a social-networking website, is home to 40 billion photos. And decoding the human genome involves analysing 3 billion base pairs—which took ten years the first time it was done, in 2003, but can now be achieved in one week.

All these examples tell the same story: that the world contains an unimaginably vast amount of digital information which is getting ever vaster ever more rapidly.

Alex Szalay, an astrophysicist at Johns Hopkins University, notes that the proliferation of data is making them increasingly inaccessible. “How to make sense of all these data? People should be worried about how we train the next generation, not just of scientists, but people in government and industry,” he says.

“We are at a different period because of so much information,” says James Cortada of IBM, who has written a couple of dozen books on the history of information in society. Joe Hellerstein, a computer scientist at the University of California in Berkeley, calls it “the industrial revolution of data”. The effect is being felt everywhere, from business to science, from government to the arts. Scientists and computer engineers have coined a new term for the phenomenon: “big data”.

Moreover, there are now many more people who interact with information. Between 1990 and 2005 more than 1 billion people worldwide entered the middle class. As they get richer they become more literate, which fuels information growth, notes Mr Cortada. The results are showing up in politics, economics and the law as well. “Revolutions in science have often been preceded by revolutions in measurement,” says Sinan Aral, a business professor at New York University. Just as the microscope transformed biology by exposing germs, and the electron microscope changed physics, all these data are turning the social sciences upside down, he explains. Researchers are now able to understand human behaviour at the population level rather than the individual level.

The amount of digital information increases tenfold every five years. Moore’s law, which the computer industry now takes for granted, says that the processing power and storage capacity of computer chips double or their prices halve roughly every 18 months. The software programs are getting better too. Edward Felten, a computer scientist at Princeton University, reckons that the improvements in the algorithms driving computer applications have played as important a part as Moore’s law for decades.

A vast amount of that information is shared. By 2013 the amount of traffic flowing over the internet annually will reach 667 exabytes, according to Cisco, a maker of communications gear. And the quantity of data continues to grow faster than the ability of the network to carry it all.

Read more about our increasing data and it’s associated problems at The Economist

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Our planet’s magnetic field has reversed polarity from time to time throughout its history. Some models suggest that a flip would be completed in a year or two, but if, as others predict, it lasted decades or longer we would be left exposed to space radiation. This could short-circuit satellites, pose a risk to aircraft passengers and play havoc with electrical equipment on the ground.

To test whether we would see a flip coming, Gauthier Hulot of Denis Diderot University in Paris, France, and colleagues ran computer simulations of Earth’s magnetic dynamo based on a range of plausible values for inputs such as the viscosity, electrical and thermal conductivity of the outer core, and the temperature difference across it. The model’s predictions remained consistent over this range of values for no more than a few decades, Hulot’s team will report in Geophysical Research Letters. Their result implies that we can forecast a flip only this far in advance - and then only with data that is as precise as possible. “It’s like predicting the weather,” says Hulot.

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Borderland Sciences Research Foundation - The Lakhovsky Multiple Wave Oscillator from Borderland Sciences on Vimeo.

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One of the limitations of conventional thinking in computation is that computable functions proceed in a sequential manner, one independent step after another. When computer scientists talk of parallelism, they usually mean carrying out more than one of these independent linear computations at the same time.

In the biological world, things are more complex because steps in biological computations may not be independent. Take, for example, the circadian rhythm in plants, the 24 hour cycle of biochemical processes that govern behavior. The cycle has various important features such as the ability to synchronizes with an external periodic light source and to continue to oscillate even in the absence of variations in illumination.

Each feedback loop is part of a hugely complex biochemical network and is affected by many factors simultaneously…Of course, plant clocks have been studied for hundreds of years and a huge amount is known about how they work, particularly about Arabidopsis thaliana, a small flowering plant that is the standard object of study for plant biologists.

The trouble is that nobody has been able to accurately model the behavior of these rhythms from first principles.

That’s because these processes do not involve independent sequential steps, so conventional computational methods are just not up to the job. Biochemists need some other way of thinking about their problem.

As luck would have it, just such a system has been waiting in the wings. Process algebra is a form of computation that can handle multiple simultaneous interdependent steps and this makes it perfect for modeling these tricky biochemical networks and the feedback loops that drive them.

Several orders of magnitude separate the efficiency of biological computation from what is possible with silicon. If that difference turns out to be the result of process algebra, then the study and manipulation of networks such as the Ostreococcus clock, may turn out to be the trigger for a new generation of super-efficient computing.

Read more at technology review or check out Plants and Radionic Currents for some good ol’ kookery.

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Gonna try and do one of these monthly for about a year or so. Will mostly be Nanotech oriented, may leak over into neuroscience developments from time to time.

So, How close are we to grey-gooing ourselves? Let’s try to find out together, shall we?

Digging deep into diamonds - “The new device offers a bright, stable source of single photons at room temperature, an essential element in making fast and secure computing with light practical.

The finding could lead to a new class of nanostructured diamond devices suitable for quantum communication and computing, as well as advance areas ranging from biological and chemical sensing to scientific imaging.”

A Stellar, Metal-Free Way to Make Carbon Nanotubes - Meteorite’s containing naturally formed space-Carbon Nanotubes could help us in their design and possibly shed a bit of light on the way carbon is seeded on planets

You live in a very unhealthy world and probably don’t take steps to reduce your risk of health problems, but have no fear - Medibots could be fixing your damaged equipment before you know it.

Artificial Skin will use Quantum Tunneling - so now your sexbots will actually feel your love through non-local entanglement sensors? Kind of:

“Peratech makes an electrically conductive material called quantum tunneling composite (QTC). When the material is compressed electrons jump between two conductors separated by polymer insulating layer covered with metallic nanoparticles.

QTC robot skin could perhaps let a robot know precisely where it has been touched, and with how much pressure. It could also be helpful in designing machines that have better grasping capabilities, and for developing more natural ways for machines to interact with humans.”

Organic Transistor Paves Way for New Generations of Neuro-Inspired Computers - “For the first time, CNRS and CEA researchers have developed a transistor that can mimic the main functionality of a synapse. This organic transistor, based on pentacene and gold nanoparticles and known as a NOMFET (Nanoparticle Organic Memory Field-Effect Transistor), has opened the way to new generations of neuro-inspired computers, capable of responding in a manner similar to the nervous system.”

Them gold nanoparticles sure have been worth all the years of failed alchemist looking for their philospher’s stone. See:NanoGold used in Cancer Treatment.

Of course, everyone’s been wigging out about the emerging actualization of William Gibson’s Nanofaxes via “3D printing” which is actually tech that’s been in development for several years, mostly aimed at organ tissue printing.

The Self-Assembling Nanoparticles into Complex Nanostructures article over at H+ Magazine discusses the issue: “These parts, in turn, can be assembled by positioning mechanisms of assorted sizes to build macroscopic (visible) but still atomically-precise products. The concept is that a functioning nanofactory will create virtually any product at the cost of only the input raw material and energy.”

and the idea receives further fanfare with a different perspective via Can Open Source Manufacturing Save Humanity?:

While this technology is very promising, consider that your governments are passing measures to stop you from trading purely digital information on the basis of copyright. Given their investment in production, don’t you think they will attempt to lockdown this developing science in one way or another?

KNOW YOUR FUTURE BETTER.

So, what’d we miss?

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Borderland Sciences Research Foundation - Preston Nichols’ Spacetime Laboratories - Part 1 from Borderland Sciences on Vimeo.

Borderland Sciences Research Foundation - Preston Nichols’ Spacetime Laboratories - Part 2 from Borderland Sciences on Vimeo.

Borderland Sciences Research Foundation - Preston Nichols’ Spacetime Laboratories - Part 3 from Borderland Sciences on Vimeo.

Borderlands research visits the home & labs of Preston Nichols, Radio Engineer and Montauk kook supreme to check out his labs and equipment.

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Ray Kurzweil speaks at the BCI X-prize conference on the singularity and challenges facing neural computer interfaces. The X-Prize for BCI is hoping to be set to offer $10 million+ to technology which enables the sight of the blind. Read more at H+ Magazine

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“Eventually, the day will come when life on Earth ends. Whether that’s tomorrow or five billion years from now, whether by nuclear war, climate change, or the Sun burning up its fuel, the last living cell on Earth will one day wither and die. But that doesn’t mean that all is lost. What if we had the chance to sow the seeds of terrestrial life throughout the universe, to settle young planets within developing solar systems many light-years away, and thus give our long evolutionary line the chance to continue indefinitely?

According to Michael Mautner, Research Professor of Chemistry at Virginia Commonwealth University, seeding the universe with life is not just an option, it’s our moral obligation.

Mautner says that “directed panspermia” missions can be accomplished with present technology.

“We have a moral obligation to plan for the propagation of life, and even the transfer of human life to other solar systems which can be transformed via microbial activity, thereby preparing these worlds to develop and sustain complex life,” Mautner explained “Securing that future for life can give our human existence a cosmic purpose.”

the strategy is to deposit an array of primitive organisms on potentially fertile planets and protoplanets throughout the universe. Like the earliest life on Earth, organisms such as cyanobacteria could seed other planets, digest toxic gases (such as ammonia and carbon dioxide on early Earth) and release products such as oxygen which promote the evolution of more complex species. To increase their chances of success, the microbial payloads should contain a variety of organisms with various environmental tolerances, and hardy multicellular organisms such as rotifer eggs to jumpstart higher evolution. These organisms may be captured into asteroids and comets in the newly forming solar systems and transported from there by impacts to planets as their host environments develop.”

Read more at PhysOrg

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A very unusual deletion can be observed in the archived data of HAARP instrument readings from the day before the Haiti earthquake. Perhaps it is a matter of time until it will get fixed with a simple copy-paste operation, but I have made screen shots of it).

Set the date in “Chart Archives” below the today’s graph to 2001/Jan/11 in the window below the graph and see for your selves. It is the only instance of such an occurrence I have discovered by looking through other historical dates. Perhaps some other deletions have already been fixed, I can think of date like May 12th 2008 or December 26th 2004.

The graphs are here: Spectrum Monitor Waterfall Chart

Despite this gap in data, the day’s Induction Magnetometer audio appears intact having no blanks in playback.

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Building a space elevator would require anchoring a cable on the ground near Earth’s equator and deploying the other end thousands of kilometres into space. The centrifugal force due to Earth’s spin would keep the cable taut so that a robot could climb it and release payloads into orbit.

Though building a space elevator might require an initial investment of billions of dollars, proponents say once constructed, it would make for cheaper trips into space than is possible using rockets. But huge technological hurdles must first be overcome, including how to supply power to the robotic climber.

Now, a robotic climber has made a prize-winning ascent worth $900,000, making it the first to win money in the competition

Ted Semon, a volunteer with the Spaceward Foundation, a non-profit that organised the competition, and author of the Space Elevator Blog, says the feat shows space elevators are one step closer to getting off the ground. “We’ve done a lot here to demonstrate that this technology is possible,” he told New Scientist. “This is just enormously exciting.”

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Electrical signals from different parts of the same cell have been simultaneously recorded for the first time, thanks to a new technique for attaching nanowire probes. This could aid the study of how heart, muscle and brain cells function and communicate.


The method uses a device called a nanowire field effect transistor (NWFET). This consists of a silicon wire just 20 nanometres in diameter attached to metal electrodes on a substrate of silicon dioxide. The nanowire, which sticks out by 30 to 40 nanometres, can be used as a probe to amplify the electrical signals produced by anything it touches.
….
They grow heart cells taken from chicken embryos on transparent polymer substrates and then transfer the cells to the nanowire array. Each cell is then positioned over up to 10 nanowires with the aid of a microscope. “We can do measurements that weren’t possible before,” says Lieber.

Besides making simultaneous measurements from different parts of the same cell, the wires can record the signals produced by several cells in the same tissue culture at the same time.

Modern wetware is a less disappointing field to look at all the time.

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Lunar Influence on the Electrochemical Production of Colloidal Silver

Article by Michael Theroux

“The research work of Eugen and Lily Kolisko in the 1920s and 30s introduced the idea that certain celestial events had a profound effect on metals, and that the ancient traditional relationships between specific metals and planets could be demonstrated via laboratory experiment. The process of these experiments involved placing cylinders of special filter paper into dishes which held measured amounts of the various metal salts. Then, the capillary patterns which subsequently emerged, could be studied with reference to specific solar system events (a complete detailed description of the experimental process is contained in the book, The Metal-Planet Relationship by Nick Kollerstrom, available from BSRF). Early on, the Koliskos observed the effects that the moon’s phases had on solutions of silver chloride, and that profound effects could be viewed during lunar eclipses.

This information prompted the idea that lunar influence could produce exceptional differences in the quality of electrochemically produced colloidal silver. We immediately began preparing the necessary experimental equipment for the upcoming lunar eclipse (March 23, 1997, 8:45PM PST). Two CS-300 colloidal silver generators were used for the electrochemical process and a digital countdown timer would ensure that each batch ran for the exact prescribed time of 20 minutes. The first and second of four batches were initiated just prior to, and during the eclipse, and the last two just after the eclipse. The electrodes were checked and cleaned before each batch was run to assure a consistent voltage throughout the experimental run. The water used was distilled and was provided from the same bottle, and then pre-measured into 8 oz. glasses of identical size and make. Normal batches of colloidal silver produced in this way yield a count of about 6000 to 8000 ppb (parts per billion) of silver.”

Read more…

Care of Journal of Borderland Research

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Most theories that come out of the fringe are wrong. Hardly a point of any real contention to be sure. The world of kook science is populated by colourful wonks, unyielding grouches, the highly uneducated, the utterly mad, and, as follows, they’re usually working from cues that do not correspond to what is known about the world.

It is equally clear that we can never discount anything, no matter how ridiculous the theory or weird the theorist. It is as important to present alternative theories, to challenge them, as it is any conventional theory, because sometimes, just sometimes, the kooks have it right, and the world had it wrong all along.

Snap on your ether goggles, adjust your psychotronic tuning, drink that magnetic water, crank the rheostats radionic, pull the lever, flick the switches, prepare to oscillate, and RED, GREEN, BLUE . . .

EYES OPEN: WE’RE GOING IN!

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“Ready for the present? CERN, Human Cloning, Annunaki, the Greys, Improbability, Drive, Love”

Freeman presents an interesting vantage point on where we’re at in this latest episode of Radio Freeman.

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