sexta-feira, 2 de outubro de 2015

3D-printed ice shelter wins NASA's Mars habitat design competition

 

 

Ice House is based on NASA's

Ice House is based on NASA's "follow the water" approach to exploration (Credit: Team Space Exploration Architecture and Clouds Architecture Office)

NASA has announced the winners of its 3-D Printed Habitat Challenge Design Competition. The contest sought architectural concepts for how 3D printing might be used to create shelters on the Red Planet. The overall winner, Ice House, would be built using the planet's predicted abundant water supply.

  • Team LavaHive proposes using construction rovers with inflatable attachment sections as the basis for the shelter, ...
  • Up to four astronauts could be housed in Team Gamma's shelter
  • Team Gamma's 3D-printed Mars shelter would cover an area of 93 sq m (1,001 sq ft)
  • Team Gamma would use

More than 165 submissions to the competition, which was launched in May, were received by NASA. The 3-D Printed Habitat Challenge, of which the design competition is part, is ultimately aimed at contributing towards the development of new technologies for additive manufacturing using "local indigenous materials" in space and on Earth.

"The creativity and depth of the designs we’ve seen have impressed us," says NASA's Centennial Challenges Program Manager Monsi Roman. "These teams were not only imaginative and artistic with their entries, but they also really took into account the life-dependent functionality our future space explorers will need in an off-Earth habitat."

Ice House was designed by Team Space Exploration Architecture, and Clouds Architecture Office. It is based on NASA's "follow the water" approach to exploration. As water is a means of sustaining life and ice a potential building material, the team opted to locate at Alba Mons in Mars' northern hemisphere, where it is believed sub-surface water ice is plentiful.

The proposal uses a lander as the basis of the shelter, containing both private and communal interior spaces. Once in situ, it would deploy an inflatable ETFE membrane to create an interstitial environment between the outside of the capsule and the Mars atmosphere. Rovers would then extract water from the ice below the surface at Alba Mons and apply it to form a protective skin on the inside of the inflatable environment.

Not only does the layer of ice provide protection from radiation in the outside atmosphere, it is also translucent and allows light into the habitat. By conditioning the environment within the inflatable section, it is proposed that the ice be kept frozen indefinitely and vegetation could be grown, which would help to convert carbon dioxide into oxygen.

The second place award of $15,000 went to Team Gamma, from architecture firm Foster + Partners. Its concept proposes using semi-autonomous robots to build a shelter using regolith (the loose soil and rocks found on the surface of Mars).

Finally, third place honors went to Team LavaHive. It proposes using construction rovers with inflatable attachment sections as the basis for the shelter. Once inflated, the sections would be covered in "lava-casted" regolith to create a protective layer. This approach would be used to create a number of adjacent shelters with adjoining corridors.

Teams were judged on many factors, including architectural concept, design approach, habitability, innovation, functionality, Mars site selection and 3D print constructability. The highest ranked 30 submissions, including the three winners, were displayed at the New York Maker Faire on Sunday, Sep. 27.

Source: NASA

  • The Team Gamma dwelling would have a variety of overlapping private and communal spaces
  • Team Gamma proposes using inflatable modules that form the core of the settlement would be placed into the crater
  • For Team Gamma, the initial excavation of a 1.5-m (4.9-ft) deep crater would be carried out by large
  • The Ice House makes use of a projected mars descent vehicle, a deployable membrane, and semi-autonomous robotic printers to both gather and deposit subsurface water ice

 

http://www.gizmag.com/nasa-3d-printed-habitat-challenge-design-competition-winners/39673

A golden retriever, 8 birds and a hamster are the best friends.

 

Based in Brazil, along with his human owner and at least eight pet birds, ‘Bob’ is a golden retriever and his best friends–a chubby hamster and eight birds. The owner of this cuddly group posts photos of the group under Instagram moniker ‘bob_goldenretriever’.

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http://trenf.com/a-golden-retriever-8-birds-and-a-hamster-are-the-best-friends/

quinta-feira, 1 de outubro de 2015

Can we build a complete wiring diagram of the human brain?

 

 

A

A "connectome," or map of neural pathways and wires, of a human brain (Credit: Human Connectome Project)

Our brains are wondrous, incredible machines. They're slower than the earliest personal computers in terms of raw processing power, yet capable of leaps of intuition and able to store a lifetime of memories that are cross-referenced and instantly-accessible at the slightest prompting. We know so very little about how they do these things, however. But imagine for a moment if we could build a complete wiring diagram of a human brain – to map in detail every one of the hundred trillion or so synapses and roughly hundred billion neurons together with all the tiniest supporting mechanisms. What might that mean, and would it even be possibl

That cylinder in the middle of the image is the tiny, cubic millimeter-sized chunk of mouse ...A super-close-up reconstructed view of the synapses on a dendrite, with the synaptic vesicles (little white ...Reconstructed mouse neurons (the large blotches) with their dendrite branches

Keep thinking about that. We'll come back to it in a bit. First let's cover some more background. The functioning of a healthy brain relies on its network of neuronal connections. Multiple layers of connections and pathways, like the wires of an old mainframe computer, all add up to a single entity.

This network of connections has been called the "connectome" by scientists. To map it is essentially to build the brain's wiring diagram. The human brain connectome has not yet been fully mapped at the cellular or the macro (high-level structural and functional) scale, though efforts to do the latter are much further along than the former – which has only just even become possible (more on that later).

Both avenues of connectome study promise all sorts of insights about how the brain works. The Human Connectome Project, which is an international effort to map the connectomes of 1,000 people on a macro scale – mostly just the white matter, or active myelinated (insulated) nerve cell bundles – using magnetic resonance imaging, this week announced its finding that brain wiring patterns correlate with behavioral and demographic traits.

An fMRI-generated connectome of the human brain that shows active connections between neurons

The study found that in a sample of 460 people aged between 22 and 35, people with more education, better physical endurance, above-average memory, and other "positive" traits seem to have more strongly-connected brains than people with "negative" traits such as smoking, aggressive behavior, or a history of drug use. The results don't indicate whether one causes the other, but they do show that connectivity patterns could one day help predict traits or offer broad indicators of the effect of drugs on the brain.

 

It's all connected

Jeff Lichtman is a professor at Harvard University. He's one of the world's leading researchers in neurobiology, which looks at the brain and nervous system of animals and humans in terms of its anatomy and physiology (i.e., its cells and tissues, and the way they function and are organized). And he runs Harvard'sLichtman Lab. His journey in the field started when he was taking a course on histology – the study of tissues of the body – in medical school.

During the clinical component of the course – which delves into pathology, or the study of disorders/diseases in bodily tissues – he was struck by how there's no physical sign of what's wrong in autism, schizophrenia, bipolar disorder, and other maladies of the nervous system. "This was very different from all the other organ systems where when you look at the tissue there's something to see that is the physical equivalent or correlate of the disease," Lichtman tells us. There's always a physical abnormality like an inflammation or discoloration. But not so for most diseases and disorders that affect the brain.

"After a while I realized that the reason there aren't abnormalities is not that there really aren't any, but because no one's ever actually looked at the brain at the level of resolution they'd have to look to see these abnormalities," Lichtman continues.

The brain is vastly more complicated than any other organ, however, so it's not just a matter of zooming in further – although that's a big part of it. "People will take a single section through a piece of brain and show a synapse," Lichtman explains. "But the brain works by virtue of these connections that allow one nerve cell to talk to many other nerve cells, sort of like a Twitter account, and each nerve cell is also the recipient of a network of information from thousands of other nerve cells."

As a graduate student, Lichtman studied the peripheral nervous system of human babies and other mammalian babies. He noted dramatic rewiring of the nervous system as the babies developed, then developed a technique to map it out using colors. But there aren't enough colors to show all of the wires in the cerebral cortex. He needed another method.

Lichtman's Brainbow technique was used here to color code the wires in a mouse's (a) ear muscle, (b) brainstem axon tract, and (c) hippocampal dentate gyrus, as part of a 2008 study

Size matters

Only one animal's full connectome has been constructed thus far: the roundworm C. elegans, which has a mere 302 neurons and serves as the model for research and data sharing in the field. But researchers are also putting considerable effort into mapping the mouse connectome, since mice are easily accessible in the lab and they serve as animal models for many kinds of medical studies.

It's in the mouse connectome that Lichtman and 20 of his colleagues in a joint Harvard and Boston University-led study chose to show off the latest new imaging technology earlier this year. They essentially figured out a way to adapt electron microscopy, which goes down to nanoscale resolutions, for brain imaging. And they tested the technology on a tiny slice of an adult mouse's neocortex, gaining new insights into the complex relationship between axons (nerve fibers) and dendrites (branches on neurons that act kind of like electric input sockets).

Lichtman believes this technology may help with many clinical studies, such as one his lab is working on that explores the difference in brains of healthy mice and those that have an equivalent of a human autism gene for the rare neurodevelopmental disorder Rett syndrome.

A key part of science is coming up not only with hypotheses to test but also with questions to ask. And nanoscale imaging of the brain promises to open up a brave new world of questions about brain function and structure on a cellular and subcellular level.

Principle to the quest to map the human connectome is the question of how memories are stored. "You have all these experiences of your life that are basically in there forever," Lichtman says. "You're never going to get rid of them. You may have trouble recalling things, but once you're reminded they just pop back into consciousness, which means that they're sitting in your brain in some form. Almost certainly in the form of which particular nerve cells are connected together in little networks. But no one knows how that information is encoded."

Mapping the wires of the brain might just provide the answer – which Lichtman expects will be some sort of learning algorithm that takes faces, shapes, objects, textures, sounds, names, or whatever else and converts them into wires and electrical signals.

Lichtman is also excited to see whether wiring diagrams might show why and how the brain changes as we get old. He suspects that old brains may have simpler wiring diagrams than younger ones, but connectome mapping – particularly at the finer resolutions – could hold the answer.

A super-close-up reconstructed view of the synapses on a dendrite, with the synaptic vesicles (little white dots that store neurotransmitters) also visible

 

Big data

If nothing else, this wiring diagram of the brain will provide a lot of data. What you might call big data. You need to look at every cubic millimeter of brain to see every synapse, which is necessary to map the brain's connectome in full. "In a cubic millimeter of brain there is about two terabytes of image data," Lichtman says. "I think the original Google Maps was on the range of several terabytes – that was for the whole planet." As of August 2012, it was around 20 petabytes, or 20,500 terabytes, for satellite, aerial, and street imagery combined.

A human brain has something on the order of a million cubic millimeters, which means you'd need around two million terabytes to store a map of its wires. Two million terabytes is around two thousand petabytes, or two exabytes. "That's a big number," Lichtman notes. "Even today. Even for Google."

It's so big, even, that most people cannot fathom it. Even that 302-neuron C. elegans worm connectome is too much for most people, and it's more on the order of 12 terabytes. "You couldn't ask for a smaller [connectome] dataset than that, and it's impossibly complicated," Lichtman says. "You can't just look at it and say, 'Oh now I understand how the worm swims and why it makes a sinusoidal movement when the worm moves around in the soil or why it backs up when something noxious bumps into its nose.' It's in there, but you can't look at it and say, 'I see it.'"

If you grew up in a world where a megabyte is a big dataset, you probably have no hope of understanding the scale of a human connectome dataset. If you came of age this millennium, you'll likely have a somewhat easier time of it, because your brain is wired differently, but Lichtman cautions that we may be crossing an important threshold in human development – not just in neuroscience or science more broadly, but in everything from politics to economics to religion.

"The biggest casualty of big data is big ideas, in the sense that there are no big ideas that encompass the data any more," he says. "The data is more complicated than the thoughts of most people." There are too many variables and complex interactions for us to hold in our heads, basically.

With the death of big ideas could come a fundamental change in the human experience, wherein we don't understand and believe so much as steer the analyses and follow the data. What we're looking at with big data is a division between understanding and analysis. We can simulate, model, and analyze with computers, but we can no longer be confident about understanding the results in their entirety.

Reconstructed mouse neurons (the large blotches) with their dendrite branches

 

Man or machine?

That's not the only potential change Lichtman sees on the horizon. As the newly-discovered behavioral links allude to, mapping the brain could radically transform how we treat people. As we demystify the brain with these wiring diagrams, he warns, "virtually all behavior can begin to be judged on the machine that's causing that behavior. Criminality becomes just an expected behavior given the starting condition of that particular brain."

Conceptions of free will could evaporate, and deep-rooted philosophical and religious beliefs may be challenged to their core. That's no reason to abandon the research, because the payoffs – the secret workings of our minds – are so great, but it's cause for concern, and a possible challenge for what Lichtman concedes is a very expensive field of study that advances incredibly slowly.

What we know now about the brain is infinitesimally small relative to the full picture. Lichtman says that mouse neocortex test study for nanoscale brain imaging looked at a mere three billionths or so of the brain's volume.

That scale makes it a somewhat controversial point in science, because it seems like an impossible feat to map an entire human brain at the cellular level. But Lichtman says that this kind of work in general is controversial for a more fundamental reason.

 

Seeking description

Science is traditionally experimental, whereas connectome mapping is descriptive. Experiments test ideas and manipulate things. Descriptive projects like this one or the Hubble space telescope, or the whole field of archeology, on the other hand, merely look. They are tools of ponderance: what's out there?

To many people that sounds perfectly reasonable, but Lichtman says, "A lot of people in the biomedical sciences think that we are in some way beyond description." Instead, we should be manipulating things – knocking out genes, adding chemicals, activating nerve cells. Not wondering what uncharted, unheard of mysteries remain in the depths of the brain.

That cylinder in the middle of the image is the tiny, cubic millimeter-sized chunk of mouse neocortex studied as a test case for nanoscale brain imaging technology

Lichtman likens neuroscience on the whole to a staircase with a million stairs. At the top is a complete one-to-one mapping of the human brain. "We maybe have gone one step," he says, "but that's the goal – to turn this field into something productive enough that it is able to generate enough data that one can begin to approach these deep mysteries about the brain."

In truth we probably know more about the universe beyond our Earth than about that which lies between our ears. And that is precisely why Lichtman and his connectome-mapping colleagues will persevere. "As long as we're seeing things we've never seen before, as long as we're discovering things that look different from what we expected, we should keep doing it," he says. "Obviously, because it's adding insight to things that were mysterious."

"Once you understand something well enough that there's nothing to learn and everything is the same, then yeah, maybe it's time to stop. But we're far, far from there."

  • Color-coded (by direction) white matter fiber architecture from the Human Connectome Project
  • Color-coded (by direction) white matter fiber architecture from the Human Connectome Project
  • An fMRI-generated connectome of the human brain that shows active connections between neurons
  • Lichtman's Brainbow technique was used here to color code the wires in a mouse's (a) ear muscle, (b) brainstem axon tract, and (c) hippocampal dentate gyrus, as part of a 2008 study

http://www.gizmag.com/connectome-wiring-diagram-human-brain/39659

Honda presents Neowing tilting tricycle ahead of Tokyo Motor Show

 

 

The Honda Neowing is a tilting three-wheeled hybrid concept bike

The Honda Neowing is a tilting three-wheeled hybrid concept bike (Credit: Honda)

If there's one market segment where Honda has been notably absent, it would be tilting three-wheelers. That's about to change, though, as the new concept model that Honda plans to unveil in Tokyo undeniably demonstrates its intent to enter this relatively new vehicle class.

The Honda EV-Cub Concept is an electric short-distance commuter that was first introduced in 2009 at ...

The Honda Light Weight Super Sports Concept is introduced as the next-generation sportbike

Honda refers to the Neowing's front suspension as an

Honda's Neowing couples a four-cylinder boxer engine with electric motors, transmitting the output to the rear ...

Honda calls its tricycle the Neowing, evidently pursuing a connection to the company's touring icon, the Goldwing. The 4-cylinder boxer engine helps a lot in this direction, as it's definitely reminiscent of the Goldwing's horizontally-opposed 6-cylinder motor.

The press release is rather scant of information, confined to just a few lines carefully selected to magnetize our attention until the official unveiling that will take place in late October, when the 44th Tokyo Motor Show opens its gates.

Honda states that the Neowing is a hybrid-powered vehicle, coupling its boxer engine with electric motors and transmitting the output to the rear wheel via what appears to be a shaft. There's no word on the internal combustion motor's capacity or performance figures, and the press release remains equally secretive on the type, number and arrangement of the electric motors. The use of plural leaves no doubt there's more than one, yet from the official image released by Honda we can only assume that these do not reside in the front wheel hubs.

What is more important though is the leaning front suspension setup. Vaguely described as an "original Honda linkage mechanism," this system will probably be the focus point of this prototype tricycle when we get to examine it in more detail.

The greatest assets of these three-wheeled vehicles are the safety features incurred by their tilting front suspension systems. Piaggio initiated this market segment with the MP3, based on a patented system by Studio Marabese Design. Every vehicle that followed suit – namely the Quadro 3D, Peugeot Metropolis and Yamaha Tricity – relied on its own exclusive design, so we should expect Honda to innovate as well.

As powerful and exciting as this concept may seem, chances are it serves more as an eye-catching introductory platform for Honda's involvement in the tilting three-wheeled class, with ensuing production models opting for more "sensible" powertrains, both in terms of output and cost.

Apart from the Neowing, Honda will also display a Light Weight Super Sports Concept in Tokyo. There is practically no information to detail the technology behind this prototype, apart from the fact that it is described as a next-generation sportbike with a "strong presence." Judging from the single front brake disc, it must be powered by a small-to-medium-capacity engine. In this segment Honda has on offer a single-cylinder 300 cc engine as used in the CBR300R, against competition from Kawasaki, Yamaha and Benelli that sport twin-cylinder motors. In less than a month we'll know if this is Honda's response.

The parade of Honda concepts includes also the EV-Cub, an electric short-distance commuter based on the timeless Super Cub design. This was actually first introduced at the 2009 Tokyo Motor Show, and Honda doesn't explain if its reappearance is related to any new features brought about over the course of the last six years.

The 44th Tokyo Motor Show will start with two Press Days on October 28 and 29, opening its gates for the general public from October 30 until November 8.

Source: Honda

 

http://www.gizmag.com/honda-neowing-leaning-three-wheeled-concept-motorcycle/39654

ISIS Wants to Plant Its Black Flags In Europe. Will it Succeed?

 

 

For the first time in history, an author says, we have a terrorist organization that has the apparatus of a state.

Picture of Abu Musab al-Zarqawi

ISIS’s founder, Abu Musab al-Zarqawi, shown here in a 2006 video, was a petty criminal and drug addict before he “got” religion and began a campaign of terror aimed at ushering in a new Islamic caliphate.

Photograph by U.S. Department of Defense via Getty Images

ISIS saturates the news. But few of us know much about its origins or its founder Abu Musab al-Zarqawi. In his new book, Black Flags: The Rise of Isis, Pulitzer Prize-winning reporter Joby Warrick takes us inside the twisted mind of Zarqawi and his followers, reconstructs the hunt for Zarqawi by a female CIA agent who could have stepped right out of the movie Zero Dark Thirty, and traces the U.S. response to ISIS across several administrations, laying bare our mistakes.

Talking from his home in Fairfax, Virginia, he describes how former Secretary of State Colin Powell first gave Zarqawi global celebrity status, how ISIS perfected the art of publicizing its violent actions via the Internet, and what we have to do if we’re to stop ISIS spreading to Europe—and beyond.

The spiritual godfather of ISIS was a Jordanian terrorist, Abu Musab al-Zarqawi. Tell us about him and his particular brand of jihadism.

Zarqawi is probably the least likely person ever to become a major terrorist figure. He was from a middle class family in a town called Zarqa, Jordan, a gritty, industrial city not far from the capital. He was a bad seed from early on, who got into trouble with the law as a kid: heavy drinking, thuggery, petty crime, drug abuse. Later, he “gets” religion and goes to Afghanistan, where his views were shaped by being around the bin Laden generation of jihadists. These were then hardened by years in prison after he was arrested for a terrorist plot.

ISIS has become expert at manipulating social media.

Joby Warrick

Where bin Laden had a long-term vision for slowly toppling secular Arab regimes and bringing about God’s kingdom on Earth, Zarqawi felt that if he took bold steps, shock the world with violent action, he could make these things happen in the here and now.

Where does the name ISIS come from? And to what extent does ISIS draw on Islamic scripture?

The so-called Islamic State grew out of Zarqawi’s original movement, Al Qaeda in Iraq. After Zarqawi’s death, it became Islamic State in Iraq, and its name reflects its ambition. It is an Islamic state, a caliphate, which doesn’t recognize secular rules or democracy.

Picture of air strike against militant leader Abu Musab al-Zarqawi in an isolated palm grove

An Iraqi soldier guards the scene of the 2006 U.S. airstrike on Zarqawi’s safe house, killing him. For Nada Bakos—one of the few women in the Central Intelligence Agency to hold the position of targeter, responsible for gathering critical information in the search for an enemy—hunting Zarqawi became deeply personal.

Photograph by Joao Silva, The New York Times - Pool, Getty Images

There’s a long tradition in both the Koran and the Hadith supporting the idea of a caliphate or Islamic state. The symbol of the black flag can also be traced back to the Hadith. There’s one particular passage that talks about these mighty men coming from the East with black flags and long hair and beards. So you have this colorful image of armed forces marching from the East to conquer the world.

Zarqawi took that literally and tried to fashion the style of his group along those lines. They had the prominent black flags with the prophet’s message on it, “There is no God but God.”

They also dressed in black clothes, a style Zarqawi personally adopted. It’s laden with symbols and intended to convey to the Muslim devout that they are the warriors the Prophet told us about, and they’re on a march to take over the world.

Thousands of young people are flocking to ISIS’s banner. How has ISIS managed to become a mass movement, in the way that Al Qaeda never did?

There are many things bound up in this. First of all, ISIS has become expert at manipulating social media. We’ve seen that many times on Facebook, Twitter, and Instagram. That’s something that goes back to the earliest days. One of Zarqawi’s signature acts, the first time he presented himself to the world as a terrorist, was to use the Internet, which was just beginning to take off, to behead an American captive on screen named Nick Berg.

They take this innocent young man and put him in an orange jumpsuit evoking the mistreatment, in their view, of Arab hostages and prisoners in American camps like Abu Graib and delivering retribution for all the perceived insults and abuses that Muslims have suffered at the hands of the West.

Picture of fighter of the Islamic State of Iraq and the Levant (ISIL) holds an ISIL flag

Black is more than a fashion statement for ISIS’s foot soldiers, like this man in the northern Iraqi city of Mosul. Islamic scripture invokes bearded warriors with black flags coming from the East to conquer the world.

Photograph by Reuters, Corbis

In the dramatic final moment, Zarqawi himself takes a knife and cuts the young man’s head off. It’s a very grizzly scene using uncut, very raw videography, showing this man being beheaded in a very slow and torturous process.

The video circulated around the world. It horrified most people but energized Zarqawi’s, which is exactly what he intended. He was reaching out very deliberately to a specific audience—young men frustrated that the Islamic world of the Arab states has been exploited by the West, that God’s message has gotten lost, and societies are corrupt. He appealed very strongly to these young men and gave them a cause and a purpose to believe in.

Who is financing ISIS? And why can we not stop the flow of money from our so-called allies, like Qatar?

We’ve done it with the drug cartels, and we were fairly effective with AQ [Al Qaeda] early on because there were well-documented routes through which money flowed to AQ, mostly from Islamic charities.

Much of the Islamic State income comes not from these charitable gifts but directly from their criminal enterprises in the areas they now occupy. In the case of Syria and Iraq they now have oil wells under their control and can sell oil on the black market, and they have tentacles out in a million different directions from which they can derive income.

In the early days there was also direct aid from some of our good friends in the Gulf, who began supplying people they thought were allies in the fight against Assad. Some of them now are starting to get the message. But on an individual level there are still people in Kuwait, Qatar, and other countries who continue to donate money using Twitter or other online means.

Picture of Jordanians protest after prayers to express their solidarity with pilot murdered by ISIS

In February in Amman, Jordan, people gathered near the Al Hussein Mosque to express solidarity with fellow citizen and air force pilot Muath al-Kasasbeh, who had been burned alive by ISIS after his plane crashed in Syria. His murder caused revulsion around the world.

Photograph by Jordan Pix, Getty Images

One of the planks of ISIS’s vision is the recreation of a pan-Arabiccaliphate. Talk about the background to this notion and Zarqawi’s vision for its modern day realization.

Zarqawi became obsessed early on with the fact that the country he lived and grew up in, Jordan, and other countries around him, were created on maps by Europeans at the end of WWI for their own purposes. The traditional caliphate, which spanned traditional national boundaries, had been erased.

Zarqawi’s idea was to destroy the Sykes-Picot Treaty of 1916 that had created all these countries and put into its place a caliphate. In a sense, that’s what ISIS has managed to do. They argue there is now no boundary between western Iraq and eastern Syria. It’s all part of the so-called Islamic state of Iraq and Levant. And they would like to replicate that throughout Mesopotamia and the Gulf.

You write that American blunders in Iraq created “a black hole” that enabled Zarqawi’s organization to gain momentum. Are we responsible for ISIS then? 

It’s hard to say that we were the primary cause of ISIS becoming what it is today, but we certainly played a role in its founding. Nobody had heard of Zarqawi in early 2003, when Secretary of State Colin Powell got up before the UN to make the pitch for an invasion of Iraq. He put Zarqawi’s photograph on the big screen and identified him as a link between Saddam Hussein and Al Qaeda, suggesting a nexus able to pass weapons of mass destruction from Iraqi to terrorists around the world, using this one individual as the poster child for the invasion of Iraq.

It boggles your mind that another human being could carry out acts like this.

Joby Warrick

It turned out that Zarqawi had not even been a part of Al Qaeda. They thought he was too extreme and wouldn’t let him in. He was certainly no friend to Saddam Hussein, either. We helped turn him into an international celebrity and create a terrorist organization that came close to driving the U.S. out of Iraq a few years after President Bush’s famous “mission accomplished” speech.

Zarqawi became known as “the sheikh of the slaughterers.” The most infamous example of his violent methods was the immolation of a Jordanian pilot. Describe that incident—and how it backfired.

They really stretched their imaginations to come up with the most extreme way to carry out this act. They put him in a cage, doused him with fuel, and set him ablaze while filming the whole thing. They then posted the video. Not just any video. It was a very slick, well-produced video that ends with a chilling list of other pilots’ names, addresses, and pictures, offering reward money to anyone who captures or kills them.

For ISIS, this was an act of revenge against the Jordanian government. But it backfired. Burning a human being, particularly a Muslim, is a great taboo in the Islamic world. There was a huge outcry from Egypt and throughout the Gulf and Levant. The leaders of both the Shia and Sunni faiths stood up and very strongly condemned it, saying, “This is not just wrong, it’s evil.” That became the turning point for many Muslims around the world.

Picture of book jacket of Black Flags The Rise Of Isis

The hunt for Zarqawi was masterminded by a CIA operative named Nada Bakos. Tell us about her—and how this became a personal mission, as hunting bin Laden was for the character, Maya, in the movie Zero Dark Thirty.

One of her former supervisors said to me that Nada was like someone who counts cards in Vegas. She could instantly see all the permutations of a possible deal, connect the dots, and come up with a very smart analysis to help the CIA get closer to their target.

She ended up almost by accident becoming involved in the hunt for Zarqawi in the pre-invasion days. She was part of the team that tried to determine whether there was a link between Zarqawi, Saddam Hussein, and AQ. Their conclusion was that he was not involved in any significant way with either organization. Later on, as a Zarqawi expert, she becomes “the targeter, to use their term, the officer responsible for gathering intelligence to find where he was and how to kill or capture him.

What shocked you most in researching this book?

What was hardest was the level of malevolence that you see in ISIS’s leadership and in their followers. One thing I forced myself to do as part of my research was look at their propaganda. I get their latest Tweets and video posts on sites like Facebook. They outdo themselves with horrific acts, from crucifixion to immolation, or forcing some young kid take a gun and kill a captive. You see these things every day, and it boggles your mind that another human being could carry out acts like this.

How can we stop ISIS? Or will they one day reach the gates of Vienna?

With ISIS we have something unprecedented—a terrorist organization that for the first time in history has the apparatus of a state. It’s so entrenched, and its resources are so impressive, that it’s going to take a long time for us to root them out.

The only way to do it is with an all-of-the-above approach, except for involvement of U.S. ground forces. As we saw in Iraq, putting boots on the ground in a Muslim country only incites people to join ISIS. We have to be involved in the intelligence game, use airpower and diplomacy to rally our sometimes-reluctant allies into doing more.

All these thing have to be done aggressively and urgently because this is a problem that is not limited to the Middle East. It’s aimed at our own capitals as well. ISIS says the next stop will be Europe. So we have to be extremely vigilant to make sure they don’t get any farther than they are right now.

 

http://news.nationalgeographic.com/2015/09/150930-isis-book-talk-simon-worrall-terrorists-middle-east-syria-iraq