Happy Easter 2013!

Happy Easter and happy spring renewal to all! Easter developed from the Old English word Ēastre or Ēostre, derived from the Anglo-Saxon Pagan month of Eostur-monath (which roughly corresponds to our month of April). This month was named after the goddess Ēostre or Ostara who symbolized the dawn, spring, renewal, and rebirth of the earth after the long winter.

Now we celebrate by decorating eggs, a symbol of birth and fertility and new growth, and with chocolate rabbits, also a symbol of spring.

When I was little, I always loved Easter time because my grandmother would have vases of daffodils and lilies around the house. And my aunt hollowed out eggs, cut a window in the side of the shell, and painstakingly assembled pastoral scenes inside using miniature trees and flowers, and tiny ceramic rabbits. But the best part was the Easter Bunny who came to deliver beautifully dyed and decorated eggs in a basket full of chocolate and treats (like the kind pictured below in the vintage ad for Brach's candy...I just love Easter kitsch)--my mom and dad would guide me through the house to where the Easter Bunny hid my basket!

I hope the Easter Bunny brought you some treats to celebrate the rebirth of the world!

Easter Crime

"Which one stole your corn feed? Take your time. Be sure."

"So Good To Me" by Chris Malinchak

Come on, now how cute is this...?

Record of the Day says that "So Good To Me" (featuring a sample from "If This World Were Mine" by Marvin Gaye and Tammi Terrell) by 26-year-old New York deep house producer Chris Malinchak is fast shaping up to be the soundtrack of the summer. What a warm, joyful tune for warm, joyful days.

http://soundcloud.com/chrismalinchak

BEAUTY: Ceramics--Dirk Staschke

The food-centric work of ceramicist Dirk Staschke is multi-layered: beautiful but full of meaning.

On his website, Staschke says:
"In the studio I arrange shape and form, creating opportunities for light and shadow (and perhaps wealth). These arrangements are informed by the mundane ritual of eating that is long celebrated in ceramics. Unlike the potter whose empty dishes present an opportunity, my settings come prearranged as opulent, inedible meals that are simultaneously beautiful and disgusting. In this process, sustenance becomes merely a concept forever locked in its sculptural form and eating becomes a metaphor for excessive material consumption.

Like an extravagant meal, the arrangements we make to further our desires can come with painful unintended consequences. My recent body of work explores notions of gluttony and cultural excess."

Top to bottom: Bounty; Swan Song; Consuming Allegory; Propagation; Confectional Facade; Wishing Well, Knowing Otherwise; Cataclysm

http://www.artdirk.com/

BEAUTY: Photography--Molly Strohl

Photographer Molly Strohl may be only 19 years old, but she exhibits a talent beyond her years. Her marvelous sense of narrative creates some compelling situations for her unwitting subjects.

http://www.mollystrohlphotography.com/

BEAUTY: Photography--Julien Mauve

Parisian photographer Julien Mauve's series "After Lights Out" imagines an eerie world of perpetual darkness. I have often had the daydream of "what if we lived on a planet that was always night, what would that look like?" but the answer I am sure would be that we would have adapted to the dark and would not need light at all. Mauve's dark world sees a lone light source as a beacon of comfort and hope...something longed for but elusive. The images are haunting... especially the one with a light burning inside a crypt (sixth image down).

http://www.julienmauve.com/

Bio-Computers!

This reminds me of the David Cronenberg film "eXistenZ"...

This incredible piece of scientific news yesterday comes from Stanford School of Medicine. The possibilities are mind-boggling.

Biological transistor enables computing within living cells, study says
BY ANDREW MYERS

When Charles Babbage prototyped the first computing machine in the 19th century, he imagined using mechanical gears and latches to control information. ENIAC, the first modern computer developed in the 1940s, used vacuum tubes and electricity. Today, computers use transistors made from highly engineered semiconducting materials to carry out their logical operations.

And now a team of Stanford University bioengineers has taken computing beyond mechanics and electronics into the living realm of biology. In a paper published March 28 in Science, the team details a biological transistor made from genetic material — DNA and RNA — in place of gears or electrons. The team calls its biological transistor the “transcriptor."

“Transcriptors are the key component behind amplifying genetic logic — akin to the transistor and electronics,” said Jerome Bonnet, PhD, a postdoctoral scholar in bioengineering and the paper’s lead author.

The creation of the transcriptor allows engineers to compute inside living cells to record, for instance, when cells have been exposed to certain external stimuli or environmental factors, or even to turn on and off cell reproduction as needed.

“Biological computers can be used to study and reprogram living systems, monitor environments and improve cellular therapeutics,” said Drew Endy, PhD, assistant professor of bioengineering and the paper’s senior author.

In electronics, a transistor controls the flow of electrons along a circuit. Similarly, in biologics, a transcriptor controls the flow of a specific protein, RNA polymerase, as it travels along a strand of DNA.

“We have repurposed a group of natural proteins, called integrases, to realize digital control over the flow of RNA polymerase along DNA, which in turn allowed us to engineer amplifying genetic logic,” said Endy.

Using transcriptors, the team has created what are known in electrical engineering as logic gates that can derive true-false answers to virtually any biochemical question that might be posed within a cell.

They refer to their transcriptor-based logic gates as “Boolean Integrase Logic,” or “BIL gates” for short.

Transcriptor-based gates alone do not constitute a computer, but they are the third and final component of a biological computer that could operate within individual living cells.

Despite their outward differences, all modern computers, from ENIAC to Apple, share three basic functions: storing, transmitting and performing logical operations on information.

Last year, Endy and his team made news in delivering the other two core components of a fully functional genetic computer. The first was a type of rewritable digital data storage within DNA. They also developed a mechanism for transmitting genetic information from cell to cell, a sort of biological Internet.

It all adds up to creating a computer inside a living cell.

Digital logic is often referred to as “Boolean logic,” after George Boole, the mathematician who proposed the system in 1854. Today, Boolean logic typically takes the form of 1s and 0s within a computer. Answer true, gate open; answer false, gate closed. Open. Closed. On. Off. 1. 0. It’s that basic. But it turns out that with just these simple tools and ways of thinking you can accomplish quite a lot.

“AND” and “OR” are just two of the most basic Boolean logic gates. An “AND” gate, for instance, is “true” when both of its inputs are true — when “a” and “b” are true. An “OR” gate, on the other hand, is true when either or both of its inputs are true.

In a biological setting, the possibilities for logic are as limitless as in electronics, Bonnet explained. “You could test whether a given cell had been exposed to any number of external stimuli — the presence of glucose and caffeine, for instance. BIL gates would allow you to make that determination and to store that information so you could easily identify those which had been exposed and which had not,” he said.

By the same token, you could tell the cell to start or stop reproducing if certain factors were present. And, by coupling BIL gates with the team’s biological Internet, it is possible to communicate genetic information from cell to cell to orchestrate the behavior of a group of cells.

“The potential applications are limited only by the imagination of the researcher,” said co-author Monica Ortiz, a PhD candidate in bioengineering who demonstrated autonomous cell-to-cell communication of DNA encoding various BIL gates.

To create transcriptors and logic gates, the team used carefully calibrated combinations of enzymes — the integrases mentioned earlier — that control the flow of RNA polymerase along strands of DNA. If this were electronics, DNA is the wire and RNA polymerase is the electron.

“The choice of enzymes is important,” Bonnet said. “We have been careful to select enzymes that function in bacteria, fungi, plants and animals, so that bio-computers can be engineered within a variety of organisms.”

On the technical side, the transcriptor achieves a key similarity between the biological transistor and its semiconducting cousin: signal amplification.

With transcriptors, a very small change in the expression of an integrase can create a very large change in the expression of any two other genes.

To understand the importance of amplification, consider that the transistor was first conceived as a way to replace expensive, inefficient and unreliable vacuum tubes in the amplification of telephone signals for transcontinental phone calls. Electrical signals traveling along wires get weaker the farther they travel, but if you put an amplifier every so often along the way, you can relay the signal across a great distance. The same would hold in biological systems as signals get transmitted among a group of cells.

“It is a concept similar to transistor radios,” said Pakpoom Subsoontorn, a PhD candidate in bioengineering and co-author of the study who developed theoretical models to predict the behavior of BIL gates. “Relatively weak radio waves traveling through the air can get amplified into sound.”

To bring the age of the biological computer to a much speedier reality, Endy and his team have contributed all of BIL gates to the public domain so that others can immediately harness and improve upon the tools.

“Most of biotechnology has not yet been imagined, let alone made true. By freely sharing important basic tools everyone can work better together,” Bonnet said.

The research was funded by the National Science Foundation and the Townshend Lamarre Foundation.

Information about Stanford’s Department of Bioengineering, which also supported the work, is available at http://bioengineering.stanford.edu. The department is jointly operated by the School of Engineering and the School of Medicine.

Original story at Stanford Medicine website:
http://med.stanford.edu/ism/2013/march/bil-gates.html

How To Feel Better...

http://www.namqkang.com/

Woodkid: WOW!

French video director-turned recording artist Woodkid (Yoann Lemoine) makes robust, powerful music. These two debut videos, "Iron" and "Run Boy Run," directed by him are simply thrilling! The second one picks up where the first one leaves off...

http://www.woodkid.com/

BEAUTY: Interior--Kelly Wearstler

Once again, interior designer Kelly Wearstler shows her talent and genius, this time in a spacious Bel Air home. Present are some of her signature pieces designed by her, as well as her passion for unique lighting, and vintage pieces spanning the Art Deco 20s to the abstract 60s. She is heavily featuring brass, which is making a very strong comeback in interior design, as well as her love for pietra dura or inlaid marble, and strong geometrics like stripes and pyramid shapes. I really like the Jean de Merry chandelier over the Pedro Friedeburg table in the entryway, and the gold and brass kitchen, but I especially love the very long sconces in the living room which were salvaged from a Roman cinema. Click on each one of these images and drink in her heady creativity.

Photos via Architectural Digest

http://www.kellywearstler.com/

"The Maybe" by Tilda Swinton at MoMA

The Gothamist reports:

As if starring in David Bowie music videos wasn't already the coolest, Tilda Swinton has currently taken up residency sleeping at MoMA. It's part of an unannounced, surprise performance piece called "The Maybe" that will be taking place on random days all year. A MoMA source told us, "Museum staff doesn't know she's coming until the day of, but she's here today. She'll be there the whole day. All that's in the box is cushions and a water jug."

"Tilda Swinton will be doing unannounced, random performance art pieces sleeping in a glass box in the museum," the source added. "Today [March 23, 2013] is the first performance. Each performance lasts the whole day the museum is open." Swinton and her box are located near the ticket collectors today, but the box may be in different locations at other performances.

"The Maybe" was first performed in London in 1995 at the Serpentine Gallery; Swinton conceived the performance piece, and asked artist Cornelia Parker to collaborate on the installation. Swinton later re-performed the piece in the Museo Barracco in Rome. Here's what the museum has to say about the piece: "An integral part of The Maybe's incarnation at MoMA in 2013 is that there is no published schedule for its appearance, no artist's statement released, no museum statement beyond this brief context, no public profile or image issued. Those who find it chance upon it for themselves, live and in real—shared—time: now we see it, now we don't."

via The Gotahmist
http://gothamist.com/2013/03/23/photos_tilda_swinton_is_sleeping_in.php

http://www.moma.org/
http://tildaswinton.net/

Older and Slower! Now With More Dark Matter!

(CNN) -- How cute was our universe as a baby? We now know better than ever: The picture of our early universe just got sharper and tells scientists with greater precision many important facts about how the universe evolved.

This new photogenic moment, released Thursday, comes courtesy of the European Space Agency's Planck space telescope, which detects cosmic microwave background radiation -- the light left over from the Big Bang. Scientists used data from Planck to create an artificially colored map of temperature variations across the sky in the early universe, in more detail than ever before.

"It's a big deal," said Charles Lawrence, Planck project scientist at NASA's Jet Propulsion Laboratory, in a news briefing. He added, "We can tie together a whole range of phenomena that couldn't be tied together so well before, and the sum total of that, the impact, is felt in many, many ways."

The light is technically from 380,000 years after the Big Bang, but that's still infancy when you consider that, according to the new data, the age of the universe is about 13.8 billion years.

"By the matching observations from Planck to predictions from models, we can assemble a surprisingly detailed picture of the universe as it was one nano-nano-nano-nanosecond after the Big Bang," said Marc Kamionkowski, professor of physics and astronomy at John Hopkins University.

Kamionkowski compared the Planck map to the Human Genome Project in terms of its importance for cosmology.

After analyzing the new data, scientists now believe that the universe is about 100 million years older than they thought.

The universe's light started out as a white hot glow and would have been blindingly bright if anyone had been around to see it, Lawrence said.

But since the Big Bang, that hot light has cooled significantly, and the universe itself has expanded by a factor of 1,100. The light has cooled so much that we can't see it, but Planck can detect subtle variations in temperature, which give scientists a wealth of information. By subtle, we mean about one-hundred-millionth of a degree.

The colors in the temperature map image that scientists released Thursday were arbitrarily chosen to show these intensity variations, Lawrence said. Red means a little bit warmer than average, blue means cooler than average, and white is average.

Planck data also suggest that our universe has more dark matter than previously thought. A full 26.8% appears to be dark matter, an invisible phenomenon that scientists have only been able to detect indirectly; experiments both in space and at the Large Hadron Collider are hoping to pin it down.

It appears that ordinary matter -- all of the stuff that we can see, such as planets and stars -- makes up only 4.9% of all the universe.

The rest of the universe is an even more mysterious phenomenon called dark energy, which has also never been detected and appears to be in less abundance than researchers thought.

Scientists said the rate at which the universe is expanding, based on these observations, is 67.15 kilometers per second per megaparsec, a unit of vast distance in space (1 megaparsec = 3.3 million light years). That's significantly less than what had been calculated previously (73.8 km/sec/Mpc). This number, known as the Hubble constant, describes the acceleration of the stretching of spacetime.

The discrepancy between these Hubble constants will likely attract a lot of attention in the scientific community and is one of the most exciting parts of the new data, said Martin White, a scientist with the Planck mission based at the University of California, Berkeley.

"The hope would be that this is actually pointing toward some deficiency in the models, or some extra physics that we're not aware of, and maybe spark a whole new research direction," White said.

One theory that could be explored is that the nature of dark energy, which scientists think is causing the accelerated expansion of the universe, is different from the simplest human-calculated models. Is dark energy increasing with time over some volume of space? That's a radical theory, though, White said, and there are other possibilities.

Another anomaly of these results is that temperature fluctuations are not uniform across the sky map. There are more variations in one direction than in another.

"Perhaps we could say that our universe has thrown us a curve ball, and it rarely fails to surprise us," said Krzysztof Gorski, Planck scientist at NASA's Jet Propulsion Laboratory.

Scientists ran 10 million computer simulations and chose from among them the best match to the new data, White said. Out of those, they found a good match describing important statistics about the universe.

The Planck telescope is aboard a spacecraft that launched in May 2009. It is not circling the Earth but orbits a point in the Sun-Earth system called the second Lagrange point.

The Planck mission helps to nail down many of the parameters that other experiments must know to explore aspects of the universe, such as its expansion history, White said.

New analyses are based on the first 15.5 months of data from this mission, which is run principally by the European Space Agency. NASA is a partner of the project.

Planck represents the third generation of attempts to map the cosmic microwave background. The first was COBE, launched in 1989, followed by WMAP, launched in 2001. Comparing the resulting maps shows just how much better the maps have gotten with each successive satellite.

"This is a beautiful illustration of how science works," Lawrence said. "Make a measurement, learn from it, make a better measurement, learn from it."

By Elizabeth Landau
http://www.cnn.com/2013/03/21/tech/innovation/universe-planck-map/index.html?hpt=hp_c3

BEAUTY: Photography--Irina Polin

First Irina Polin creates still lives stuffed and crammed with all sorts of souvenirs, keepsakes, tokens, tchotchkes, and what-not, and then photographs the results for "Show-Cases," her homage to collectors (and hoarders), vitrines, and display shelves the world over.

Top to bottom: Dacha; Day Light; My Collection; Three Pushkins, Three Squirrels; House of Architect; White Things

http://www.irinapolin.com/