News and Updates

03/02/2015

Congratulations to SESE undergraduate student Carl Fields for wining top prize for best poster by an undergraduate student at the National Society of Black Physicists. Fields is an astrophysics major in SESE. For the past year he has been working with Professor Frank Timmes.

 

02/25/2015

In case you were wondering about the 30-foot-high metal tower that suddenly appeared amid a patch of trees on the east side of Arizona State University’s Tempe campus – the one with an array of sensors and monitors attached to it – it’s not capturing data from your cell phone or laptop as you walk by. It’s a meteorological flux tower assembled by three ASU engineering students.

The structure is gathering information about the surrounding ground surface and atmospheric conditions – tracking changes in moisture, carbon dioxide, weather and wind speed and direction.

The sensing devices are detecting and measuring evaporation and gas and heat transfer processes between the soil and the ambient atmosphere.

The students will be using the data as part of larger projects to study how an area’s natural environmental footprint is impacted by the built urban environment – and vice versa.

They plan to move the tower over about a year’s time to several locations on three or four of ASU’s campuses to get readings in a variety of different settings.

(Joe Kullman)

Caption: Three ASU engineering students built a meteorological flux tower to study the interactions between the natural environment and urban development. From left, they are undergraduate civil engineering student Ivan Lopez-Castrillo, geological sciences doctoral student Adam Schreiner-McGraw and environmental engineering doctoral student Nolie Pierini. They are working under the guidance of Enrique Vivoni (at far right), an associate professor in the School of Sustainable Engineering and the Built Environment, and the School of Earth and Space Exploration. Photography by Jessica Hochreiter/ASU

02/24/2015

Traveling over 11.3 billion miles at an astonishing 11 miles a second, the Voyager satellites are our farthest flung emissaries and the first human-made objects to travel beyond our solar system. Launched in 1977, the Voyagers 1 and 2 each carry messages that define humanity—everything from music recordings, pictures of Antarctic exploration, ballet dancers, and traffic jams. With Voyager 2 set to leave the solar system in 2015, it’s the perfect time to go back to the beginning of this project. ASU professor Jim Bell’s "THE INTERSTELLAR AGE: Inside the Forty-Year Voyager Mission" (Dutton; On-sale: February 24, 2015) is the ultimate guide and the first book to tell the whole story of the Voyager spacecraft and its scientific discoveries.

The Voyager mission was planned as a grand tour beyond the moon; beyond Mars, Jupiter, and Saturn; and maybe even beyond our solar system. The fact that it actually happened and that the satellites have been sending clear images of the outer planets and moons for nearly forty years makes this mission not only a success, but also humanity’s greatest mission of exploration ever. In THE INTERSTELLAR AGE, Bell reveals what drove and continues to drive the members of this extraordinary team such as Ed Stone, Voyager’s chief scientist and one-time head of NASA’s Jet Propulsion Lab and Charlie Kohlhase, an orbital dynamics engineer who helped to design many of the critical slingshot maneuvers around the planets.

Bell also details the Voyagers themselves – from the instruments and nuclear reactors they carry, to the famous gold record with recordings of Brahms, Beethoven, and Chuck Berry’s “Johnny B. Goode.” He also explains in fascinating detail how the engineers had to devise ways for the spacecraft to recognize problems on their own, and what will happen as the nuclear reactors on board run down.
When the first Voyager satellite left our solar system two years ago, it rekindled the media and America’s fascination with space, and the imminent departure of the second is bound to do the same. In this golden era of space exploration, Bell’s THE INTERSTELLAR AGE is an awe-inspiring story of the pioneers of this movement and their historic scientific achievements.

Bell is a professor in the School of Earth and Space Exploration at Arizona State University, an adjunct professor in the Department of Astronomy at Cornell University, and the president of the Planetary Society. He and his teammates have received more than a dozen NASA Group Achievement Awards for their work on space missions, and he was the recipient of the 2011 Carl Sagan Medal for Excellence in Public Communication in Planetary Science from the American Astronomical Society.

 

02/17/2015

An interview with Scott Parazynski, ASU’S first Designated University Explorer

By Claire Topal, Senior Research Consultant, Center for Sustainable Health

When you have summited Mt. Everest and practiced medicine in space, you gain perspective that few can say they share. Reflecting on his experiences 29,000 feet above sea level on the world’s highest mountain, and orbiting the earth at 17,500 miles per hour, Scott Parazynski tells us what extreme settings clarify about health and healthcare.

On the big mountaintops of the world, the challenges of hypoxia and altitude-related illness are enormous. “If we can monitor and predict common problems,” Scott explains, “we could prevent the onset of high altitude pulmonary edema or cerebral edema. Technology could give us a critical lead in cases like this, creating enough time to turn the endangered person around now rather than waiting until they’re extremely ill and no longer mobile.”

“The sensitivity of the algorithm is the key,” he clarified, “whether it’s working in beat-to-beat variability, a dip in oxygen saturation, respiratory drive, or CO2 level. In other words, we need to measure things we can’t feel or see. New technologies help us determine—in the operating room, the ICU, and even the home (not just on mountaintops)—whether to keep pressing on as we are, or whether to make a change, before change becomes either too difficult, or a desperate life or death necessity.”

In space, the medical challenges may be a little different, but the opportunities that noninvasive technologies create are similar—and even more extreme. “When we go up into space, our muscululoskeletal system kind of goes on holiday,” Scott explains. “Zero gravity can make systems atrophy. That’s not so much of a problem while you’re still in space, but if you want to come back healthy, you need a cardiovascular reserve; your muscles and bones need to maintain strength and integrity. Monitoring of these systems is very important and manageable with quite simple devices.”

“The experience of space flight is actually a great model of accelerated aging,” Scott added. For me, this immediately conjured images of the mysterious “life force” balls of light from the 1985 Ron Howard film Cocoon. While practicing medicine in space unfortunately hasn’t revealed the formula for eternal youth, Scott notes that it does help us understand and predict long-term deterioration, not just immediate medical problems.

“In space, our bones thin, our balance systems change, and sleep disorders arise due to the lack of diurnal variability in daylight. There’s cardiovascular de-conditioning. If we can use monitoring systems to assess the well-being of astronauts, those would certainly be of benefit to seniors and post-menopausal women who are at a greater risk of osteoporosis and other things of that nature,” he explains.

Predicting problems before they occur and opening doors for prevention and early treatment sound great. After all, isn’t that the bedrock of the practice of medicine? Doesn’t it save costs? Yes. Every clinician I know talks a lot about how amazing it would be if we could find a way for the predictive and preventative tools at our fingertips to truly do their jobs. Sadly, health systems still don’t seem to make that vision a practical reality.

Why not? The human race has accomplished incredible feats in human space exploration, and now space tourism has even become a reality. Is healthcare really harder?

For Scott, it’s a question of prioritization. “We’re not organized. We don’t have the right mindset collectively. We need to align competing pressures on our healthcare system and take advantage of the motivation and drive of younger, connected populations. Unfortunately, we’ve prioritized hi-tech over effectiveness and quality.”

More data and more devices are definitely not the answer. “We need to be much smarter in the way that we look at the data we already have,” Scott counsels. Common standards for data sharing and mining provide one important piece of the better-healthcare-system puzzle.

Scott offers a glimpse into the ICU to illustrate the need for better integration. “There are typically dozens of very invasive monitors in the ICU that send all sorts of data to clinicians. In most cases, there is no way to integrate this data. As a result, it’s really hard to see the important inflection points that presage the downstream data outcome.”

While affordable, noninvasive biosensors are proliferating on the consumer market, data integration is an issue there, too. How do we understand all this information – the big picture – over time? Apps and tools that claim to help individuals do this are increasing, but healthcare needs to make this happen on a broader scale, too. And that looks a little different. “Systems need to find a way to compile all the data, anonymize it, and then sift through it to see if there were indicators five days ahead of a person’s massive myocardial infarction, for example,” explains Scott. “That way, we can be spring-loaded into action for the next 1,000 patients who head down the very same path, ideally preventing bad outcomes.”

In other words, it’s not about the technology; the key is how we use the technology and the information it provides. Scott warns that a misperception has evolved that unless we use all the scanners and the expensive genomic diagnostic tools that exist, we’re not getting (or providing) quality healthcare. But that’s really not the case. “Our priorities in terms of where we focus our resources are also skewed,” he says. “Our healthcare system is essentially organized around the last month of life, instead of preventative care.”

The implications of Scott’s observations are just as serious for costs as they are for health outcomes. “We won’t be able to afford a healthcare system in the future if we don’t do something drastic,” he warns. “The Affordable Care Act may not offer the perfect solution, but it’s trying to do some of the right things, which are to reward positive health outcomes and keep people out of the hospital. Hopefully, more incentives to reward the delivery of really good preventative care will reduce cost and give us a higher quality of life – and a longer life.”

This is where those biosensors that facilitate continuous and unobtrusive monitoring come in. They empower us to understand health patterns with greater sensitivity and frequency.

One area of particular interest to Scott—and Project HoneyBee—is in the realm of post-hospital discharge monitoring. “If we can check two or three days ahead of time if a person who had bypass surgery or was being treated for congestive heart failure was about to have more problems, we could get them in for evaluation or maybe even just remotely adjust medication to bring their condition back into greater equilibrium.” The result: healthier, happier people, and much lower costs for systems.

Across the breadth of medicine, whether the issue is endocrine, cardiac, or oncologic, being able to monitor people outside of the hospital and the ICU is critical to preventing the serious outcomes that result from reacting too late. “If we can get out ahead of problems,” Scott notes, “they’re much more easily managed, less costly, and you have better outcomes as well.”

The best-case scenario for Scott is if the healthcare system could embrace changes that are, well, already beginning to happen. More and more people are independently opting to wear biosensors, the goal being motivation toward healthier behaviors. “We already have a really engaged population, and I think adhering to this kind of healthy, monitored lifestyle is only going to become more of a trend. The healthcare system should support and integrate this – not ignore it and make it difficult for clinicians to engage.”

Let’s face it: we may have human tourists on the moon before the healthcare system gets things right. But let that motivate, not demoralize us. Space travel shows us that literally anything is possible, and fortunately we still have a little time left to turn the healthcare system around. Scott assures me that neither summiting Mt. Everest nor traveling hundreds of thousands of miles above earth are pre-requisites.

Image: Scott Parazynski and Doug Wheelock in orbit. Courtesy: NASA

 

02/16/2015

NASA has selected 14 small satellites from 12 states to fly as auxiliary payloads aboard rockets planned to launch in 2016, 2017 and 2018. The proposed CubeSats come from universities across the country, non-profit organizations and NASA field centers. Arizona State University was one of the institutions selected for sponsoring a satellite.

The selections are part of the sixth round of NASA’s CubeSat Launch Initiative. CubeSats are a class of research spacecraft called nanosatellites. The cube-shaped satellites vary in size from large coffee mugs to shoeboxes. The selected satellites are eligible for placement on a launch manifest after final negotiations, depending on the availability of a flight opportunity. The ASU satellite is expected to be flight ready by May, 2016.

The ASU project is called the Asteroid Origins Satellite, or AOSAT I. It is a science laboratory that will be the world’s first CubeSat microgravity laboratory. It will enable a unique set of science and technology experiments to answer fundamental questions of how the solar system formed and understand the surface dynamics of asteroids and comets. Once launched, it will be in space for at least eight months if not longer, depending on the orbit.

“There is great and growing interest in exploring the native environment of asteroids,” says ASU Professor Erik Asphaug. “Instead of a billion-dollar mission taking a decade to develop, we have decided to build a low cost ‘patch of asteroid’ in orbit, not as a substitute for an asteroid mission but as a testbed for validating – reducing the cost and risk – of mission concepts related to asteroid deflection, sample return, and resource utilization.”

About the same size as a loaf of bread, AOSAT I was designed by a collaborative team centered in ASU’s School of Earth and Space Exploration, headed by science principal investigator Asphaug, and engineering principal investigator Jekan Thanga, a roboticist and an assistant professor. The team also includes researchers from partner institutions, including, JPL, University of Maryland, and University of Nevada, Las Vegas.

The ASU team’s roster boasts student talent as well. Jack Lightholder (computer science major) serves as the project engineer and Viranga Perera (SESE PhD student) is the project scientist. Between 2014 and 2017, a total of 32 undergraduates will be involved, along with 15 master’s students, three PhD students and two postdocs. The students work as part of SpaceTREx (Space and Terrestrial Robotic Exploration Laboratory) and the Planetary Formation Lab, headed by Thanga and Asphaug, respectively.

“Talented students under direct supervision of faculty members work on many of the critical subsystems for AOSAT 1. They are an integral part of the team. Many are multi-talented individuals, who I would have trouble distinguishing from professionals,” said Thanga.

The program is providing students and young professionals with the opportunity to participate from start to finish like never before in satellite missions. AOSAT I seeks to combine science and engineering to produce a whole line of CubeSat science laboratories in space. The potential applications spread beyond planetary sciences into life-sciences and long duration human survival in space. According to Thanga, the hope is to spin-off these capabilities into future partnerships with the student-led Sun Devil Satellite Laboratory and Dust Devils.

“One of the great things about AOSAT is that its life cycle is comparable to the tour-of-duty of a student at ASU. This makes it a highly tangible experience, where a student can design an experiment and fly it in space, and collect and analyze the data, all as part of a thesis project. This is way outside the box of standard missions, and will set the pace for student-led missions to come,” says Asphaug.

AOSAT I will be assembled in the Interdisciplinary Science and Technology Building IV (ISTB 4) clean room, which provide state-of-the-art facilities for the design, construction, assembly and testing of small spacecraft. In parallel, the NewSpace Initiative (https://newspace.asu.edu/) headed by Professor Jim Bell is coordinating efforts to rebuild ASU’s satellite ground station. A mission control center for AOSAT 1 and future ASU led CubeSat missions will be housed on the ground floor of ISTB 4. This will enable ASU to join an elite club consisting of a handful of government institutions, private entities and universities in having complete control of the space mission in house.

Image: Arizona State University researchers build their own “patch of asteroid” inside of a small spinning satellite seen here in this artist rendering. Credit: Sean Amidan

(Nikki Cassis)

 

 

02/13/2015

Earth is nearly 4,000 miles deep, and other than the outermost few miles, is inaccessible to humans. Seismology is the only tool to accurately image the deep interior of Earth. Over the last few decades, seismologists have used the tool of seismic tomography to map out the interior of Earth (much like medical CT scan tomography to image the human body).

Ed Garnero, a geophysicist at Arizona State University, will share his research on Earth’s dynamic interior at the American Association for the Advancement of Science annual meeting on Feb. 13.

For nearly 30 years, Garnero has focused his research on the area between Earth’s uppermost mantle to the innermost core.

In his lecture “Interpreting Earth's Largest Internal Seismic Anomalies: Deep Thermochemical Piles,” Garnero will discuss how modern research shows that many surface processes on our planet are related to dynamic phenomena within. He will be sharing cutting-edge images of Earth's interior, which reveal two massive continental-sized blobs half-way to Earth's center that likely relate to where the most massive eruptions happen at Earth's surface.

“One blob is located beneath the Pacific Ocean, the other is nearly on the opposite side of Earth, beneath the Atlantic and part of the African continent,” says Garnero, a professor in ASU’s School of Earth and Space Exploration. “The massive blobs are important because they appear to play a role in convective processes, including where mantle plumes originate – plumes are thought to give rise to Earth's hotspot volcanoes.”

Observations, modeling and predictions show the inner Earth to be chemically complex and continuously churning and changing. Tomographic images constructed from seismic wave readings point to differences in the speeds of waves that go through the mantle. This difference in wave speeds provides a sort of map of the major boundaries inside the mantle – where hot areas are, where cold areas are, where there are regions that might be a different composition, etc.

“These continent sized blobs have properties that result in seismic waves traveling more sluggishly through them,” explains Garnero. “Our recent research adds to the body of knowledge that supports these blobs being chemically distinct from the rest of the mantle rock.”

(Nikki Cassis)
 

02/12/2015

It’s been more than 40 years since astronauts returned the last Apollo samples from the moon, and since then those samples have undergone some of the most extensive and comprehensive analysis of any geological collection. A team led by ASU researchers has now refined the timeline of meteorite impacts on the moon through a pioneering application of laser microprobe technology to Apollo 17 samples.

Impact cratering is the most ubiquitous geologic process affecting the solid surfaces of planetary bodies in the solar system. The moon’s scarred surface serves as a record of meteorite bombardment that spans much of solar system history. Developing an absolute chronology of lunar impact events is of particular interest because the moon is an important proxy for understanding the early bombardment history of Earth, which has been largely erased by plate tectonics and erosion, and because we can use the lunar impact record to infer the ages of other cratered surfaces in the inner solar system.

Researchers in ASU’s Group 18 Laboratories, headed by Professor Kip Hodges, used an ultraviolet laser microprobe attached to a high-sensitivity mass spectrometer to analyze argon isotopes in samples returned by Apollo 17. While the laser microprobe 40Ar/39Ar technique has been applied to a large number of problems in terrestrial geochronology, including studies of texturally complex samples, this is its first time it has been applied to samples from the Apollo archive.

The samples analyzed by the ASU team are known as lunar impact melt breccias — mash-ups of glass, rock and crystal fragments that were created by impact events on the moon’s surface.

When a meteor strikes another planetary body, the impact produces very large amounts of energy, some of which goes into shock heating and melting the target rocks. These extreme conditions can ‘restart the clock’ for some mineral-isotopic chronometers, particularly for material melted during impact. As a result, the absolute ages of lunar craters are primarily determined through isotope geochronology of components of the target rocks that were shocked and heated to the point of melting, and which have since solidified.

However, lunar rocks may have experienced multiple impact events over the course of billions of years of bombardment, potentially complicating attempts to date samples and relate the results to the ages of particular impact structures.

Conventional wisdom holds that the largest impact basins on the moon were responsible for generating the vast majority of impact melts, and therefore that nearly all of the samples dated must be related to the formation of those basins.

While it is true that enormous quantities of impact melt are generated by basin-scale impact events, recent images taken by the Lunar Reconnaissance Orbiter Camera confirm that even small craters with diameters on the order of 100 meters can generate impact melts. The team’s findings have important implications for this particular observation. The results are published in the inaugural issue of the American Association for the Advancement of Science’s newest journal, Science Advances, on Feb. 12.

“One of the samples we analyzed, 77115, records evidence for only one impact event, which may or may not be related to a basin-forming impact event. In contrast, we found that the other sample, 73217, preserves evidence for at least three impact events occurring over several hundred million years, not all of which can be related to basin-scale impacts,” says Cameron Mercer, lead author of the paper and a graduate student in ASU’s School of Earth and Space Exploration.

Sample 77115, collected by astronauts Gene Cernan and Harrison Schmitt at Station 7 during their third and final moonwalk, records a single melt-forming event about 3.83 billion years ago. Sample 73217, retrieved at Station 3 during the astronauts’ second moonwalk, preserves evidence for at least three distinct impact melt-forming events occurring between 3.81 billion years ago and 3.27 billion years ago. The findings suggest that a single small sample can preserve multiple generations of melt products created by impact events over the course of billions of years.

“Our results emphasize the need for care in how we analyze samples in the context of impact dating, particularly for those samples that appear to have complex, polygenetic origins. This applies to both the samples that we currently have in our lunar and meteoritic collections, as well as samples that we recover during future human and robotic space exploration missions in the inner solar system,” says Mercer.

###

Image caption: Photomicrograph of a petrographic thin section of a piece of a coherent, crystalline impact melt breccia collected from landslide material at the base of the South Massif, Apollo 17 (sample 73217, 84). Different mineral and lithic clasts, as well as impact melt phases are evident. Determining the ages of different melt components in such a complex rock requires carefully focused analyses within context of spatial and petrographic information such as this. In their article published in the Feb. 12 issue of Science Advances, Mercer et al. used the laser microprobe 40Ar/39Ar technique to investigate age relationships of three of the distinct generations of impact melt shown in this image.

Credit: Brad Jolliff, Washington University in St. Louis.

(Nikki Cassis)

02/11/2015

March 06, 2015
3:00 p.m. - 12:00 a.m.

Radically new visions of the future will be showcased as part of Arizona State University's Emerge 2015 – a one-day event featuring visionary Jad Abumrad, host of the award-winning show Radiolab, and 10 spellbinding "visitations from the future," including theatrical performances, improvisation, games, dance and hands-on opportunities to design and build the future.

Part performance, part hands-on interactive experience, the annual Emerge event explores the ways we are already creating the future, and asks us to think about how we ensure it is the future we hope for – rather than one we dread.

The theme of Emerge 2015 is The Future of Choices and Values.

“Humans today have unprecedented power to harness and reshape matter, energy and even life itself. Emerge asks what kinds of futures we should build together, at a moment in history when what we can do is almost unlimited,” said Joel Garreau, founding co-director of Emerge and professor of law, culture and values at ASU’s Sandra Day O’Connor College of Law.

Exploring the unknown

Emerge dares brilliant creative and technical minds to bring questions about the future to life through performance, technology and storytelling. The event gathers artists, designers, scientists, engineers and audiences to imagine optimistic, thoughtful futures.

Each of the 10 “visitations from the future,” as well as the performance by Abumrad, are different ways of responding to the open question about what kind of futures we can envision, and what kind of futures we want. Because the teams behind each of the visitations are drawn from such diverse backgrounds, their answers could not be more different.

“There’s a really wide range of experiences at Emerge this year," said Megan Halpern, director of collaboration and research for Emerge 2015. "I’m especially excited to see how seriously Emerge takes the idea of play, and how the teams are incorporating opportunities for the audience to express their ideas creatively.”

Abumrad, the headliner for this year’s event, is the creator and host of Radiolab, the popular public radio show about “curiosity,” broadcast on over 500 stations across the nation and downloaded more than 9 million times a month as a podcast. In his Peabody Award-winning program, Abumrad combines journalism, storytelling, dialogue and music to craft compositions of exploration and discovery.

At Emerge, his exciting performance, called “Gut Churn” – which includes video and live sound manipulation – begins with a simple question: What does it mean to “innovate?” How does it feel to make something new in the world?

On one level, this is a personal story of how Abumrad invented a new aesthetic. On another, it is a clinic in the art of storytelling. On a third and more profound level, the lecture is the result of a three-year investigation into the science, philosophy and art of uncertainty, which all began with the two words in his title – gut churn. What use do negative feelings have during the creative process? Do those feelings get in the way, or do they propel us forward?

Event details

The event is set to take place from 3 p.m. to midnight, March 6, at the university's SkySong Innovation Center in Scottsdale, and is free and open to the public, with registration requested through asuemerge2015.eventbrite.com.

In addition to Abumrad, a host of talented artists, thinkers and creators, will be in attendance including Jonathon Keats, conceptual artist, Forbes art critic and novelist; Don Marinelli, co-founder of the world-renowned Carnegie Mellon Entertainment Technology Center (ETC); Rachel Bowditch, theater director and associate professor at ASU’s School of Film, Dance and Theatre; Toby Fraley, Pittsburgh-based artist and creator of the exhibition The Secret Life of Robots; Megan Halpern, co-founder of Redshift Productions, an arts-science performance and outreach company and postdoctoral researcher at ASU’s Center for Nanotechnology in Society; and many others.

Emerge 2015’s ASU sponsors and partners include the Herberger Institute for Design and the Arts; the Julie Ann Wrigley Global Institute of Sustainability; the Consortium for Science, Policy and Outcomes; the Ira A. Fulton Schools of Engineering; the Center for Science and the Imagination; the SkySong Innovation Center; the Office of the President; the Office of Knowledge Enterprise Development; the School of Earth and Space Exploration; the Sandra Day O’Connor College of Law; LightWorks; and the ASU Art Museum. Additional sponsors and partners include KJZZ 91.5, Scottsdale Public Art, Whole Foods Market and the Arizona SciTech Festival.

The 10 visitations from the future featured at Emerge 2015 are:

Bodies for a Global Brain, created by Eben Portnoy, Zoe Sandoval and Jeff Burke

A performative vision of a future in which humans connect their consciousness to global cloud computing networks, seeking connectedness and enlightenment. Originally funded by Google and presented by students from UCLA, the performance integrates Google Glass wearable devices with live theater.

Ars Robotica, created by Lance Gharavi, Sai Vemprala, Matt Ragan and Stephen Christensen

What if we could teach robots to dance? How would it change the relationship between humans and machines? ASU roboticists and performance artists are taking on that challenge using the Baxter industrial robot.

Johnny Appledrone vs. the FAA, created by Donald Marinelli

A one-man show about government surveillance, swarms of DIY drones and an alternative Internet, inspired by a story of the same name from ASU’s science fiction anthology "Hieroglyph: Stories and Visions for a Better Future" (HarperCollins, 2014), written by Lee Konstantinou.

The Happiness Project, created by Scott Cloutier

Sustainability researchers and community members explore how we can work together to build happier neighborhoods through sustainability interventions.

Future Design Studio, created by Megan Halpern

Create your own prototypes of artifacts from the future. From parking tickets to coffins, the Future Design Studio asks you to imagine what everyday objects will look like in the future, and then invites you to watch as improv performers from The Torch Theatre create the world in which your objects exist.

The Artwork Forge, created by Toby Fraley

A coin-operated robotic art-dispensing machine that scans the Internet for inspiration and creates customized paintings on 4 by 6 inch blocks of wood.

Abraxa, created by Rachel Bowditch

A roaming atmospheric performance exploring utopian experiments, dreams and the concept of the ideal city, created by Rachel Bowditch of ASU’s School of Film, Dance and Theatre.

Lego Future Fairy Tales, created by Marcus Snell and Tamara Christiansen

Create your own fairy tale from the future in an epic Lego build led by experts in the art and science of Lego Serious Play.

You Have Been Inventoried, created by Eric Kingsbury

An interactive exploration of RFID and data visualization technology explores a future where the smallest elements of your behavior can be digitally tracked, stored and shared with people around you.

The Deep Time Photo Lab, created by Jonathon Keats

Build a pinhole camera with a 100-year exposure time to hide somewhere in the Phoenix area, invisibly monitoring changes in the urban landscape between now and 2115.

To learn more about Emerge 2015, visit emerge.asu.edu.

Image: Radiolab creator and host Jad Abumrad will present "Gut Churn," a multimedia performance about storytelling and innovation, at Emerge 2015.

Joey Eschrich, jpe@asu.edu

 

02/04/2015

Ariel Anbar, President's Professor in SESE, has been elected a Geochemistry Fellow by The Geochemical Society (GS) and The European Association of Geochemistry (EAG).

In 1996, The Geochemical Society and The European Association for Geochemistry established the honorary title of Geochemistry Fellow, to be bestowed upon outstanding scientists who have, over some years, made a major contribution to the field of geochemistry.

The 2015 Geochemical Fellows will receive their honor at the 2015 Goldschmidt Conference in Prague, Czech Republic, this summer.

Anbar joins professor Everett Shock in this honor.

 

02/02/2015

ASU SIMS facility shrinks geochemical analysis into the nanometer regime

Two secondary ion mass spectrometry (SIMS) laboratories in the Bateman Physical Science Complex were recognized as hotbeds of scientific research, thanks to the expertise of researchers in Arizona State University’s School of Earth and Space Exploration (SESE) and the Department of Chemistry and Biochemistry (DCB). Professors Richard Hervig, Lynda Williams, and Christy Till of SESE and Professor Peter Williams and postdoctoral researcher Maitrayee Bose of DCB have been awarded $1 million over the next three years to operate their joint laboratories as a national facility for research into the Earth Sciences using this high-sensitivity microbeam analysis technique.

SIMS is an analytical tool permitting measurements of elemental concentration and isotope ratios on extremely tiny areas, so that chemical and isotopic variability on scales from a few micrometers down to several nanometers can be determined.

The spectrometers use beams of ionized atoms to focus on spots as small as 50 nanometers in size, which is less than one-thousandth the width of a human hair. The ions strike the surface and blast off and ionize atoms, which are then separated by mass and measured in sensitive detectors capable of counting individual ions. The process of scanning the beam over the surface creates a high-resolution chemical and/or isotopic image of the sample.

Currently, ASU has one of the most extensive arrays of SIMS instrumentation and SIMS expertise in the world. The ASU researchers have been consistently on the leading edge of innovation in micro-elemental analysis. SIMS research at ASU dates back to 1984 with the acquisition of a Cameca (Paris) ims3f ion microscope by Peter Williams, capable of analysis in few-micrometer areas. A more modern and more powerful ims6f microscope was added in 1999 under the leadership of Hervig. Continuing the tradition of being at the leading edge of the instrumentation, Peter Williams (with Hervig, Lynda Williams and other ASU researchers) spearheaded the acquisition of a Cameca NanoSIMS instrument in 2011, with the capability to analyze areas as small as tens of nanometers.

This combination of instruments enables applications to a broad range of scientific problems, including analyses of a wide variety of natural and synthetic inorganic materials from this planet and others, semiconductors and even biological materials.

“We have been operating as an NSF-funded national facility since early 2007,” says Hervig, professor in ASU’s School of Earth and Space Exploration and director of the ASU SIMS facility. “The 2015 renewal allows us to continue to operate as a facility, and makes the NanoSIMS instrument as well as the existing 6f SIMS lab accessible to students, researchers and faculty.”

On the national stage, this facility is a key player in the mix of instrumentation that is required to conduct state-of-the-art microanalytical geochemistry and petrology.

The SESE researchers are widely known for applying their technique to analyze tiny grains in meteorites thought to pre-date our solar system, small fragments of explosive eruptions, clays and nanopores in oil-shale, and characterization of slow elemental and isotopic diffusion in a variety of earth materials, including volcanic minerals.

“With the ability to analyze elemental concentrations in zoned crystals on the nanometer scale using NanoSIMS, we are now able to reconstruct the life history of a magma up to just a few hours before a volcanic eruption and determine the triggers for explosive volcanic eruptions at volcanoes including Yellowstone,” says Till, an assistant professor in the School of Earth and Space Exploration.

Hervig has developed many SIMS techniques for geochemistry and applied them to natural samples from this and other planets as well as a variety of synthetic materials. Lynda Williams has used this technique on a range of materials at the organic/inorganic interface, specifically on the role of nanopores in understanding more about the properties of oil shales (and the environmental impact of mining them).
ASU also has built a reputation for developing novel analytical applications and instrumentation and for fundamental research aimed at understanding the ion formation process. While a central focus of the SESE researchers is on earth science problems, the lab is open to others, and the team commonly works with materials scientists and electrical engineers on campus and in the ASU Research Park, in addition to microbiologists and chemists.

Geochemists from around the world travel to the NSF-funded National SIMS Facility on ASU’s Tempe campus to use the instruments. Since 2007, from 2 to 12 people (undergraduate and graduate students, post-doctoral researchers, senior research scientists, and faculty) have visited the ASU facility each month. They are usually from the US, but also include visitors from other countries.

One of the anonymous proposal reviewers stated: “We all know that the devil is in the details, and it seems that the scale at which the demons operate gets smaller and smaller with each new advancement in analytical capability. Being able to analyze samples with both the normal and NanoSIMS at the ASU facility will open up new frontiers in our understanding of geological problems, and especially in the ability to examine the timescales of geologic processes.” Another reviewer lauded the facility as “one of the most creative and original SIMS labs in the nation.”

Speaking on behalf of the co-investigators, Hervig said, “We are flattered to be recognized for our scientific leadership and excited at the prospects for unprecedented nanometer-scale geochemical analyses now possible with the incorporation of the new NanoSIMS instrument into the facility. This is high praise for the senior members of the team, but we are particularly pleased that the NSF reviewers agreed with our emphasis on involving younger researchers – Till and Bose – who are pushing the limits of NanoSIMS analysis in the earth and space sciences.”

Image: Images from NanoSIMS showing the location of elements in E. coli treated with natural antibacterial clay. The images represent a cross section through bacteria (The images in B, C and D are close-ups of the yellow box indicated in A. ). The data confirm which elements are critical to the antibacterial process and shows the resolution of trace element mapping by SIMS. Images by Maitrayee Bose and research by Keith Morrison and Lynda Williams in the ASU SIMS Facility.