Wednesday, June 19, 2013

Lauren Oliver's YA novel 'Panic' snagged by Universal in bidding war (Exclusive)

By Jeff Sneider

LOS ANGELES (TheWrap.com) - Universal Pictures landed the film rights to "Panic," the next young adult novel from Lauren Oliver ("Delirium"), in a bidding war.

The seven-figure deal closed on Monday night, according to an individual familiar with the negotiations. HarperCollins imprint Harper Teen will publish the book in spring 2014.

Marc Platt will produce the project for Universal, which is keeping plot details under wraps. Maradith Frenkel, Universal's VP of production, will oversee the project for the studio.

"Panic" is described as Oliver's return to the realism and grittiness of her first novel "Before I Fall," which was optioned in 2010 by Fox 2000.

"I'm thrilled about Universal's enthusiasm and passion for the project, and excited about the chance to bring this story to the big screen," said Oliver, who has earned a legion of fans for her New York Times bestselling "Delirium" trilogy.

The 30-year-old author has written seven books, and has been published in 34 countries.

Oliver is also the co-founder of the Paper Lantern Lit packaging company, which has sold 25 titles to major publishers to date. In fall 2014, she will also a release an adult novel from Ecco titled "Rooms."

Stephen Moore of the Paul Kohner Agency negotiated the deal in conjunction with Oliver's literary agent, Stephen Barbara of Foundry Literary + Media. Adam Siegel and Claire Wihnyk handled the submission at Marc Platt Productions.

Source: http://news.yahoo.com/lauren-olivers-ya-novel-panic-snagged-universal-bidding-234659791.html

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Early-life air pollution linked with childhood asthma in minorities

June 18, 2013 ? A research team led by UCSF scientists has found that exposure in infancy to nitrogen dioxide (NO2), a component of motor vehicle air pollution, is strongly linked with later development of childhood asthma among African Americans and Latinos.

The researchers said their findings indicate that air pollution might, in fact, be a cause of the disease, and they called for a tightening of U.S government standards for annual exposure to NO2.

The study is reported online currently in the American Journal of Respiratory and Critical Care Medicine ahead of print publication.

In the study, the largest to date of air pollution exposure and asthma risk in minority children in the United States, the team found that for every five parts per billion increase in NO2 exposure during the first year of life, there was a 17 percent increase in the risk of developing asthma later in life.

The study involved 3,343 Latino and 977 African American participants.

"Many previous studies have shown an obvious link between traffic-related pollution and childhood asthma, but this has never been thoroughly looked at before in an all-minority population," said lead author Katherine K. Nishimura, MPH, a graduate student in the laboratory of senior author Esteban G. Burchard, MD, MPH, a UCSF professor of bioengineering and therapeutic sciences and medicine and director of the UCSF Center for Genes, Environment & Health.

Minorities tend to live in areas of higher air pollution and have a higher risk of developing asthma, the researchers said.

What made the current study different from previous research, said Nishimura, was that the scientists looked retrospectively at the study participants' exposure to air pollution in early childhood, before they developed asthma. Children who developed asthma before this exposure period were excluded.

"Any participant with asthma in this study was exposed to air pollution in infancy, before they developed the disease, which is a step in the right direction in inferring causality," said Nishimura.

"This work adds to the growing body of evidence that traffic-related pollutants may be causally related to childhood asthma," said Burchard.

Study co-author John R. Balmes, MD, of UC San Francisco and UC Berkeley, pointed out that a previous study of children living in southern California showed that living and attending school close to major roadways was associated with an increased risk of new-onset asthma. "Together with our findings, this makes for strong evidence that reducing children's exposure to traffic emissions can prevent some cases of asthma," said Balmes.

One immediate implication of the study, said Burchard, is that the national standard for NO2 set by the Environmental Protection Agency (EPA) is "too lax by far." He noted that the current EPA annual standard is 53 parts per billion (ppb), while the study subjects were exposed, on average, to 19 ppb during the first year of life.

"Children growing up in southern California have been shown to have reduced growth of lung function when annual NO2 levels exceed the current national annual standard," added Balmes.

The participants, who were 8 to 21 years old and had no other lung diseases or chronic illnesses, were recruited from study centers in Chicago, New York City, Houston, the San Francisco Bay Area, and Puerto Rico. To adjust for instances when study participants moved residences, air pollution exposure for all subjects was assessed by using the residential histories from birth through time of recruitment. The researchers based their air pollution exposure estimates on EPA annual measurements.

"The geographic diversity of the study population strengthens the results, because the effects we see are consistent across a wide range of urban environments and conditions," said Nishimura. While the study was not designed to investigate how air pollution might cause childhood asthma, said Nishimura, the investigators are looking at two possible causes.

The first is that NO2 can interact with a number of other pollutants to create reactive oxygen species -- chemically reactive molecules containing oxygen -- which can, in turn, damage developing lungs. Immune systems that develop under such conditions, she said, could be "trained" to respond to pollutants as triggers that could later induce asthma.

Another possible explanation, said Nishimura, is that pollutants can potentially cause a genetic predisposition to asthma by altering methylation patterns in DNA. Methylation is a chemical change that alters gene expression without affecting the underlying structure of the DNA itself.

"It has been shown that changes in methylation, which can be affected by pollution, tobacco smoke and even stress, can be inherited across multiple generations," said Burchard. "Our group is currently investigating methylation as the possible outcome of exposures to a number of pollutants."

Burchard cautioned that air pollution is "not the entire story," noting that despite its low air pollution levels, Puerto Rico has the highest asthma prevalence and morbidity in the United States. "This is intriguing, and leaves us more work to do," he said.

Co-authors of the study are Joshua M. Galanter, MD, MAS, Lindsey A. Roth, MA, Sam S. Oh, PhD, MPH, Neeta Thakur, MD, MPH and Elizabeth A. Nguyen, BS, of UCSF; Shannon Thyne, MD, of San Francisco General Hospital; Harold J. Farber, MD, MSPH, of Baylor College of Medicine and Texas Children's Hospital, Houston, TX; Denise Serebrisky, MD, of Jacobi Medical Center, Bronx, NY; Rajesh Kumar, MD, MSPH, of the Ann and Robert H. Lurie Children's Hospital of Chicago; Emerita Brigino-Buenaventura, MD, of Kaiser Permanente-Vallejo Medical Center, CA; Adam Davis, MA, MPH, of Children's Hospital and Research Center Oakland, Oakland, CA; Michael A. LeNoir, MD, of Bay Area Pediatrics, Oakland, CA; Kelley Meade, MD, of Children's Hospital and Research Center Oakland; William Rodriguez-Cintron, MD, of Veterans Caribbean Health Care System, San Juan, PR; Pedro C. Avila, MD, of Northwestern University; Luisa N. Borrell, DDS, PhD, of City University of New York, Bronx, NY; Kirsten Bibbins-Domingo, MD, PhD, of UCSF; Jose R. Rodriguez-Santana, MD, of Centro de Neumologia Pediatrica, San Juan, PR; Saunak Sen, PhD, of UCSF; and Fred Lurmann, MS, of Sonoma Technology Inc., Petaluma, CA.

The study was supported by funds from the National Institutes of Health (R01-ES015794, U19-AI077439, R01-HL088133, R01-HL078885, R25-CA113710, T32-GM007546, R01-HL004464, R01-HL104608), the National Institute on Minority Health and Health Disparities, the Flight Attendant Medical Research Institute, an RWJF Amos Medical Faculty Development Award, the Sander Foundation, the American Asthma Foundation, an Ernest S. Bazley Grant, the National Center for Advancing Translational Sciences, the National Heart, Lung and Blood Institute and the Hewlett Fellowship.

Source: http://feeds.sciencedaily.com/~r/sciencedaily/top_news/top_environment/~3/Aw24qYw1MPM/130618131830.htm

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Echoes reveal the shape of a room

The shape of a room can be modelled using echoes produced from sound, new research has found.

Like bats who emit sounds in order to navigate, researchers can now plug sounds into a computer algorithm to map a room.

The team were able to build a full 3D image of a room using four microphones to record echoes bouncing off walls.

Writing in the journal PNAS, the researchers say the technology could one day help solve crime.

The ability to use sounds to navigate the world, called echolocation, is already used by dolphins and bats. Though rare, some blind people have also been known to possess this skill.

Bouncing echoes

But now with the help of a computer algorithm, the echoes from a chirp like sound can reveal the shape of a room

The algorithm could also distinguish between stronger and weaker echoes and whether they had bounced one or more times around the room.

Walls made from different materials all reflect sound differently, but it was not the amplitude that the algorithm was looking at, rather the differing arrival times between the echoes. The same result could therefore be achieved from any sound, according to the researchers.

"Our software can build a 3D map of a simple, convex room with a precision of a few millimetres," said lead author of the study, Ivan Dokmanic from the Ecole Polytechnique Federale de Lausanne in Switzerland (EPFL).

"Each microphone picks up the direct sound from the source, as well as the echoes arriving from various walls.

"The algorithm then compares the signal from each microphone. The infinitesimal lags that appear in the signals are used to calculate not only the distance between the microphones, but also the distance from each microphone to the walls and the sound source," added Mr Dokmanic.

Virtual reality

There are numerous potential applications for the research, Mr Dokmanic told BBC News.

Architects building a concert hall for example, might know the specific acoustics they want a new building to have. Using this new algorithm they could now "plug" certain echoes into a computer and "get the kind of space needed to produce those echoes".

He also explained that virtual reality could benefit from using accurate audio to correspond to visual images.

"If your eyes see and your ears hear something that doesn't correspond, your brain is confused and disorientated. If you want to start a virtual design using sound, you could use this to create spaces that are realistic with respect to the sounds, because you would know the echoes."

Mr Dokmanic also sees potential implications in the field of audio forensics, where audio is used as evidence in crime. For example, a simple sound recording taken in an unknown place could give clues to the space it was recorded in.

For that, further research is needed and Mr Dokmanic is certainly on the case.

Source: http://www.bbc.co.uk/news/science-environment-22941278#sa-ns_mchannel=rss&ns_source=PublicRSS20-sa

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A microphone that listens with light: microphones have hyper-acute hearing and a sense of direction

June 18, 2013 ? A sensor developed by scientists at SINTEF's MiNaLab will help to make microphones hypersensitive: "Think of traditional videoconference equipment. Several people are sitting around the table, but the microphone has been placed where its sound reception is less than optimal. With technology of this sort, a microphone will be able to "see" where the sound comes from, pick up the voice of the person speaking, and filter out other sources of noise in the room," explains ICT researcher Matthieu Lacolle, who emphasises that acoustics scientists at SINTEF have also contributed to this innovative solution.

Small but tightly packed

The microphone is packed full of microelectronics. What makes it really special, however, is an optical position sensor that is no more than a millimetre in diameter.

The reason for giving a position sensor such an important role is that a microphone is completely dependent on a membrane, which picks up the pressure waves produced by the sound.

"In principle, a microphone acts like a drum. You have a membrane that vibrates when it is impacted by a sound -- which is just a series of pressure waves. And then you have a reference surface in the background. The distance between these two surfaces registers the sound. We do this by measuring light waves from a microscopically small laser, so we can say that the sensor in microphones actually sees the sound," explains Lacolle.

The sensor can measure incredibly small movements, and thus also extremely quiet sounds. If we make the membrane light enough, and let it oscillate freely in the air, the microphone also becomes directionally sensitive. "That also tells us where the sound is coming from," says Lacolle, adding that the membrane is only 100 nanometres thick, almost 1000 times thinner than a human hair.

Coloured by light

The technology that makes the microphone so sensitive is based on a combination of two optical phenomena; interference and diffraction, both of which are due to the wave character of light.

"If we hold up a CD to the light, we see the play of colours where it reflects the light. This happens because light consists of a spectrum of wavelengths that the naked eye perceives as colours, and these wavelengths are diffracted in different directions, explains Lacolle.

Another phenomenon that can be utilised to measure sound is interference, which occurs when a number of waves are superimposed on each other. You can observe this when you stand in a harbour where incoming waves are reflected by a pier and are superimposed on top of the waves that follow them into the harbour. Complex, apparently chaotic wave patterns can occur, but so do standing waves, which don't appear to move at all," says the SINTEF researcher.

What the SINTEF scientists did was to exploit optical diffraction and interference to measure membrane movements of less than the diameter of an atom by using the optimal sensor.

We have created very special grooved microstructures on the reference surface, which lies directly underneath the microphone membrane. When the laser illuminates these microstructures, we can read off the direction in which the light is reflected by means of photodetectors, which transform the light into electrical signals."

Laboratory mass-production

The microphone thus consists of several elements: an ultrathin membrane, tiny grooved microstructures, a miniaturised laser and a number of photodetectors. Everything is integrated into a tiny circuit that is mass-produced on a silicon wafer on which all the structures are etched, using special equipment within a clean room.

Dust-free production

In MiNaLab's clean room, production takes place in a highly controlled environment. The production process is extremely sensitive; even a tiny grain of dust can destroy a whole production series, because it can affect the tiny microstructures.

"That's why our laboratory is equipped with vibration damping and air filters that take out particles as small as 100 nanometres," explains Lacolle.

Noise monitoring

The Norwegian company Norsonic supplies various types of noise-measurement equipment, and intends to use the new microphone to measure both sound pressure and acoustic power.

"The microphone is the very heart of the equipment that we supply. What is unique about this technology is that it can give us an extremely sensitive microphone that is capable of registering sound waves far beyond the range that microphones in this price class can do today. This lets us compete in a market that is currently occupied by very expensive equipment. Our version is also much smaller, which is an advantage in itself, because the physical size of the microphone actually affects the sound field that it is measuring," says senior scientist Ole Herman Bjor in Norsonic.

How the microphone works

In simple terms, we can say that the new microphone operates as follows: ? First, sound pressure is transformed into movements of the membrane.

? These movements are read optically via the light-sensitive detector.

? The light intensity is measured by a sensor which in turn transforms it into an electronic signal that is capable of reproducing the sound.

Other potential applications for the sensor include:

? geophones for seismic shooting

? photoacoustic gas sensors

? accelerometers

? vibration sensors

? gyroscopes

? pressure sensors

? high-temperature versions of the above-mentioned sensors

? sensors for highly irradiated sites (nuclear power stations, x-ray equipment) or with electromagnetic radiation (sensors in motors or magnetic resonance equipment).

Source: http://feeds.sciencedaily.com/~r/sciencedaily/strange_science/~3/oITeZjFxu1U/130618101616.htm

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Aaron Hernandez Home Searched in Homicide Investigation

Source: http://www.thehollywoodgossip.com/2013/06/aaron-hernandez-home-searched-in-homicide-investigation/

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Wednesday, May 1, 2013

Cern closes in on antigravity answer

Researchers at Cern in Switzerland have proved the merits of a way to test antimatter as a source of the long-postulated "anti-gravity".

Antimatter particles are the "mirror image" of normal matter, but with opposite electric charge.

How antimatter responds to gravity remains a mystery, however; it may "fall up" rather than down.

Now researchers reporting in Nature Communications have made strides toward finally resolving that notion.

Antimatter presents one of the biggest mysteries in physics, in that equal amounts of matter and antimatter should have been created at the Universe's beginning.

Continue reading the main story

?Start Quote

It's the first time that anyone has even been able to talk about doing this?

End Quote Jeffrey Hangst Alpha experiment spokesperson

Yet when the two meet, they destroy each other in what is called annihilation, turning into pure light.

Why the Universe we see today is made overwhelmingly of matter, with only tiny amounts of antimatter, has prompted a number of studies to try to find some difference between the two.

Tests at Cern's LHCb experiment and elsewhere, for example, have been looking for evidence that exotic particles decay more often into matter than antimatter.

Last week, the LHCb team reported a slight difference in the decay of particles called Bs mesons - but still not nearly enough to explain the matter mystery.

One significant difference between the two may be the way they interact with gravity - antimatter may be repelled by matter, rather than attracted to it.

But it is a difference that no one has been able to test - until the advent of Cern's Alpha experiment.

Getting annihilated

Alpha is an acronym for Antihydrogen Laser Physics Apparatus - an experiment designed to build and trap antimatter "atoms".

Just as hydrogen is made of a proton and an electron, antihydrogen is an atom made of their antimatter counterparts antiprotons and positrons.

The trick is not just in making it, but in making it hang around long enough to study it - before it bumps into any matter and annihilates.

In 2010 the Alpha team did just that, and in 2011 they showed they could keep antihydrogen atoms trapped for 1,000 seconds.

The team has now gone back to their existing data on 434 antihydrogen atoms, with the antigravity question in mind.

"In the course of all the experiments, we release (the antihydrogen atoms) and look for their annihilation," said Jeffrey Hangst, spokesperson for the experiment.

"We've gone through those data to see if we can see any influence of gravity on the positions at which they annihilate - looking for atoms to fall for the short amount of time they exist before they hit the wall," he told BBC News.

The team has made a statistical study of which antihydrogen atoms went where - up or down - and they are able to put a first set of constraints on how the anti-atoms respond to gravity.

The best limits they can suggest is that they are less than 110 times more susceptible to gravity than normal atoms, and less than 65 times that strength, but in the opposite direction: antigravity. In short, the question remains unanswered - so far.

"It's not a very interesting band yet but it's the first time that anyone has even been able to talk about doing this," said Prof Hangst.

"We actually have a machine that can address this question, that's what's exciting for us here, and we know how to get from here to the interesting regime."

The Alpha experiment's main task is to study the energy levels within antihydrogen, to spot any differences between it and the hydrogen that physicists know to extraordinary precision.

Prof Hangst said the antigravity measurement was just an "interesting sideshow" for the experiment.

"We have a lot of options for studying antimatter and this is a new one that has a future."

Source: http://www.bbc.co.uk/news/science-environment-22355187#sa-ns_mchannel=rss&ns_source=PublicRSS20-sa

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Stop Forgetting The Important Stuff From Your Meetings, Thanks To Retrace

retrace-logoIt's possible that you are an incredibly organized person who remembers everything important from your meetings, and you're part of an incredibly organized team where every post-meeting task is communicated clearly. But ... maybe not. Maybe stuff slips through the cracks. That's where Retrace, an app that just launched at Disrupt NY's Startup Battlefield, comes in. Co-founder and CEO Austin Marusco told me that Retrace is "the best way to remember and organize everything about the meetings you have." It's an iPhone app that integrates with your Google Calendar or Calendars, creating a shared workspace around each meeting where participants can share notes, photos and tasks. It also displays contact information and profiles (you can pull in data from LinkedIn and Facebook) for everyone in the meeting.

Source: http://feedproxy.google.com/~r/Techcrunch/~3/b-ZlKQjJ7SE/

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