N.Y. application for a national photonics center advances to final round

RIT joins UR, SUNY Polytechnic in leading consortium that could receive $110 million federal investment

Jan. 30, 2015
Ellen Rosen

Rochester Institute of Technology is among the leaders of a consortium named as one of three finalists in the country competing for a multimillion-dollar federal investment in a regional photonics center.

The application from the Research Foundation for the State University of New York, which includes RIT, University of Rochester, SUNY Polytechnic, Massachusetts Institute of Technology, University of Arizona, University of California at Santa Barbara and other academic and industrial partners, has advanced to the final round, Democrat New York Sens. Charles Schumer and Kirsten Gillibrand and Congresswoman Louise Slaughter announced. Full proposals are due March 31 and a winner will be announced in June, they said.

“This project would allow us to build national capabilities to support this strategically important industry,” said Ryne Raffaelle, RIT vice president for research and associate provost. “With one of the largest photonics manufacturing hubs in the nation, Rochester is uniquely positioned to take the lead, and RIT’s renowned work in microelectronic systems, imaging science and packaging will play a major role. We are very grateful to Senators Schumer and Gillibrand and Congresswoman Slaughter for championing our application, and to President Obama for his leadership in recognizing the importance of the industry to our nation’s future.”

Raffaelle said advancing photonics is essential to the nation’s manufacturing capabilities in such areas as high-speed data and telecommunications. These new technologies will allow for more information to be transmitted easier, faster and with less energy.

“Rochester is home to the world’s greatest concentration of companies, university programs and expertise in the field of photonics, and this proposed partnership would further position Rochester as a global leader in this cutting-edge industry,” Schumer said in a statement.

Gillibrand said in a statement that Rochester “would be the perfect home for the new National Institute of Photonics, and this selection to move to the final phase of consideration shows that Upstate New York’s strong community of manufacturers and innovators is prime for these types of investments.”

The application was in response to a program announced by Obama last October in which the Department of Defense will take the lead in constructing an Integrated Photonic Manufacturing Institute with a $110 million federal commitment, Slaughter said.

“Today, we are one step closer to securing a federal photonics manufacturing innovation institute. I will continue to be relentless in my efforts to secure state and federal investments for an industry that is synonymous with Rochester because I know what it means for our economy and for local jobs,” Slaughter said in a statement.

Earlier this year, RIT was named a core partner in the Chicago-based Digital Manufacturing and Design Innovation Institute and is slated for an investment of up to $20 million.

RIT has contributed to advances in the design, fabrication and manufacturing of electronic and photonic devices for more than 30 years as technology generations have progressed from the micron-scale to the nano-scale.

RIT’s leadership includes:

  • The microelectronics program, created in 1982, was the nation’s first Bachelor of Science program specializing in the fabrication of semiconductor devices and integrated circuits.
  • The microsystems engineering Ph.D. program began in RIT’s Kate Gleason College of Engineering in 2002.
  • The university’s first doctoral program was imaging science in 1990, the first of its kind in the nation.
  • More than 2,000 RIT engineers have been placed into related engineering positions across New York state and throughout the U.S., Europe and Asia.

RIT assets in this area include:

  • Semiconductor and Microsystems Fabrication Lab: This includes more than 10,000 square feet of cleanroom space dedicated to manufacturing support and workforce development. http://www.smfl.rit.edu/
  • The Center for Electronics Manufacturing and Assembly: The Center is an academic research lab offering the electronics packaging industry research services, failure analysis, training, process development, consulting and laboratory rental.http://www.rit.edu/cast/cema/
  • RIT Nanophotonics Group: The group aims to demonstrate optoelectronic chips that will revolutionize future computing, communication and sensing systems.http://www.rit.edu/~w-nanoph/photon/
  • The Center for Detectors: The center designs, develops and implements new advanced sensor technologies through collaboration with academic researchers, industry engineers, government scientists and university/college students.http://ridl.cfd.rit.edu/
  • The IT Collaboratory: The NYSERDA funded IT Collaboratoryhttp://www.rit.edu/research/itc/
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Original Source: University News

Imaging Science Sophomore Named Liberty League Field Athlete of the Week

Track and field standout Nick Ng garners Liberty League Field Athlete of the Week honor

Jan. 27, 2015
Joe Venniro


ROCHESTER, NY - Sophomore jumper Nick Ng (Wayland, MA/Wayland) of the RIT men's track and field team, was named the Liberty League Field Athlete of the Week on Monday, for the week ending Jan. 25, 2015. It is his first weekly honor.

Ng placed fourth in the long jump with a leap of 6.50 meters at the Brockport Golden Eagle Invitational on Saturday. It was a personal best for the sophomore.

The Tigers are back in action on Saturday, Jan. 31 at the Robert J. Kane Invitational, hosted by Cornell University.

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Original Source: RIT Athletics

Could Rochester be world's drone capital?
Remote Sensing

Jan. 17, 2015
Sean Lahman

(Photo: Mark Lennihan / AP)

On Monday, CNN announced that it was working with federal regulators to develop ways to use unmanned aerial vehicles as a newsgathering tool.

It's a significant step, since the Federal Aviation Administration generally prohibits commercial use of these devices, commonly referred to as drones or UAVs. They're concerned about these inexpensive fliers getting in the way of commercial aircraft, of course, but the agency has been slow to adapt existing rules to accommodate the new technology.

In 2012, Congress ordered the FAA to develop a plan for getting drones integrated into the national airspace, but progress has not come quickly. To date, the FAA has granted exemptions to just 13 companies, many of them in the motion picture business.

As a journalist, I'm excited about CNN's effort. Drones can aid in reporting and providebreathtaking views by shooting still images or video from a few hundred feet in the air. CNN senior vice president David Vigilante echoed those sentiments in a statement.

"Our aim is to get beyond hobby-grade equipment and to establish what options are available and workable to produce high quality video journalism using various types of UAVs and camera setups," Vigilante said.

But I'm excited for a more important reason. Once the FAA issues its drone regulations — a plan is due in September of this year — the drone business is going to explode.

Rochester ought to be at the epicenter of that explosion.

Look, we know all about photography here. Even in the digital age, we've got a tremendous aggregation of experts in imaging science working in this region, some of the brightest minds in the world.

But the coming boom isn't simply about capturing cool images. It's about harnessing computing power to do things with those images. And we've got the experts in that field as well.

Pictometry International, a Henrietta-based company, developed the technique of stitching together aerial photos from low-flying airplanes to create overhead images that look three-dimensional. They've also developed software and algorithms that can pinpoint locations in those photos by latitude and longitude, and even make precise measurements of things like the square footage of a building's roof.

The folks at Exelis Geospatial Systems in Gates work from even greater heights. Their researchers have designed and built the camera systems for the majority of commercial imaging satellites that have been launched, starting with the first one in 1999. Even from 373 miles in the air and traveling at 17,000 mph, they can pinpoint a spot on the ground to within a few meters.

It's this sort of technology that's really going to drive the commercial applications of drones. Software that can analyze images taken from drones to do new things, or to do old things in new ways.

Farmers could use drones to look for crop or irrigation problems, or even to keep a watch on their livestock. Utility companies could use drones to inspect pipelines or electrical wires. Imagine how a drone could change the job of a building inspector, for example, by using its camera to take measurements and identify trouble spots in areas that are difficult and dangerous for a person to go.

There are other pockets of local expertise, not the least of which is at the Rochester Institute of Technology. The school was selected by the FAA in 2013 to conduct research and testing of safe integration of drones into the national airspace system, one of a few dozen universities in the northeast collaborating on that work. RIT also has the highly regarded Digital Imaging and Remote Sensing Lab, which is going to help churn out the new engineers who will put those drones to work.

Rochester ought to be the drone capital of the world. We're uniquely positioned in advance of a boom, and everyone knows how desperately we need good paying high tech jobs.

Let's make it happen.

Sean Lahman's column appears in print on Sundays. Follow him on Twitter @SeanLahman, or reach him by email at SLAHMAN@DemocratAndChronicle.com or at (585) 258-2369.

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Original Source: Democrat & Chronicle

CIS 2013-2014 Annual Report Now Available

The 2013-2014 Annual Report for the Chester F. Carlson Center for Imaging Science at RIT is now available.

Jan. 8, 2015

CIS High School Intern Program Now Accepting Applications

The 2015 application cycle for the CIS High School Summer Intern program is open through March 6.

Jan. 6, 2015

The summer of 2015 marks the sixteenth year of the high school summer internship program at the Center for Imaging Science. This unique program offers a limited number of highly qualified juniors the opportunity to work side-by-side with world class scientists on a variety of imaging-related research projects.

These unpaid internships give students the chance to get valuable hands-on experience in a real laboratory setting as contributing members of a research team. The internship program also provides an opportunity for interaction with other students from surrounding school districts who have similar interests and ambitions. Professional development activities, team building exercises, and at least one field trip are additional benefits.

Participation in this program is free, and upon successful completion of research students are provided a certificate of completion as well as letters of recommendation.

All current high school juniors* are eligible to apply. Application instructions as well as more information are available via our High School Internship webpage

*Notice regarding non-local applicants: While this internship is not limited to local high school students, it is not within the bandwidth of the program to offer any housing or housing assistance. If a non-local student wishes to apply, they must prepare appropriate living arrangements independently. 

Could Glitter Help Solve NASA's Giant Telescope Problem?
Astronomy and Space Science

Listen to the Story: All Things Considered (2 min 55 sec) ( Download MP3   |   Transcript )

Dec. 23, 2014
Joe Palca

Larkin Carey, an optical engineer with Ball Aerospace, examines two test mirror segments designed for the James Webb Space Telescope. The mirror for the scope is extremely powerful, but heavy and pricey.

Larkin Carey, an optical engineer with Ball Aerospace, examines two test mirror segments designed for the James Webb Space Telescope. The mirror for the scope is extremely powerful, but heavy and pricey. (Image courtesy NASA)

NASA is building a new space telescope with astounding capabilities. The James Webb Space Telescope, scheduled for launch in 2018, will replace the aging Hubble Space Telescope and will provide unprecedented views of the first galaxies to form in the early universe. It might even offer the first clear glimpse of an Earth-like planet orbiting a distant star.

But there's a problem with the James Webb telescope: It's expensive. Very expensive — $8 billion expensive. So NASA has been looking for cheaper alternatives for future telescopes, and Grover Swartzlander, a physicist specializing in optics at the Rochester Institute of Technology, thinks he has one.


Astronomers use giant mirrors to capture the light from stars and galaxies, Swartzlander explains, and the bigger the mirror, the finer the detail a telescope can see.

But giant mirrors are heavy and expensive. (The Webb's mirror weighs more than 800 pounds, not counting the structure that holds it. The entire spacecraft weighs around 7 tons.) So Swartzlander and his colleagues came up with the idea of making telescope mirrors that weigh practically nothing, because they are made of what is essentially glitter. Yes, that stuff you buy in a crafts store — tiny reflecting particles made of plastic with a metal coating.

The idea, he says, is to take the shiny particles into space, spray a cloud of them outside the spacecraft, and then use lasers on the spacecraft to manipulate them into the shape of a mirror.

"By controlling all these little glittery objects in space and sweeping laser beams across them we're going to orient them and stabilize them enough so that we can form some kind of an image," says Swartzlander.

Now, there is a problem here. Yes, the mirror would be lightweight, but it wouldn't be a mirror with a smooth surface like you get with a glass mirror. So the image that the mirror sends to the telescope's detector will essentially look like a bunch of speckles.

"It's going to be a very terrible image," he admits. "But, the real progress on this topic is that there's a new trend in imaging which is called computational photography." By analyzing a series of these speckled images, he says, a computer will be able to construct a good, clean image of the object.

Swartzlander says it will take decades to perfect the technology for making glitter mirrors that can fly in space. But that doesn't mean this is just a pie-in-the-sky idea.

"We've already demonstrated this glitter concept in the laboratory," he says. The researchers went to their local craft store, bought a jar of glitter and sprinkled it onto a concave surface.

Then they used a camera to make an image of what the mirror was pointed at. "One of my smart graduate students worked on some algorithms to actually achieve a perfect image," Swartzlander says.

He hopes to send a pint-size version of his glitter mirror into space in the next few years.

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Original Source: NPR

Fly-By Forestry Takes Off
Remote Sensing

Remote laser imaging can measure the health and density of forests, allowing scientists to observe large swaths of vital ecosystems all at once.

Dec. 16, 2014
Catherine Clabby

2015-01SightingsF1.jpgClick to Enlarge Image

Despite some scattered recent gains, the world’s forests are in trouble. From 2000 to 2012, the planet lost a net total of 1.5 million square kilometers of forestland, according to a 2013 survey based on NASA satellite data. Much of the decline was due to deforestation in Brazil, Indonesia, and other tropical countries, but there have been many other setbacks as well. In the western United States, for instance, trees face an onslaught of wildfires, insect infestations, and drought. The assaults persist despite a growing awareness of the ecological value of forests, particularly their ability to absorb large amounts of carbon dioxide and sequester carbon.

As they formulate ways to protect endangered woodlands and rehabilitate ones already lost, scientists and governments need detailed information on the structures and vulnerabilities of forests around the world. Traditional ground-based surveys lack sufficient scope, so scientists are turning to another way to take the measure of the trees: light detection and ranging, or LiDAR, remote-imaging technology. Airplane-borne LiDAR scanners shoot 100,000 pulses of laser light per second to record the distance to the ground. From those data, researchers can measure the shape, type, and density of forest cover over tens of thousands of square kilometers. “That is the real power of LiDAR,” says Van Kane, an ecologist at the University of Washington who uses the technique extensively. “We can build tremendously large databases.”

2015-01SightingsF2.jpgClick to Enlarge Image

In one notable recent study, Kane and his colleagues used LiDAR to observe how fires of various intensities affect the forests in Yosemite National Park. Some fires are known to help keep forests healthy by creating gaps in their canopies that enable new growth. Kane’s LiDAR-based studies show more specifically that low- severity fires produce favorable density changes in areas dominated by red fir forests, but fires of moderate severity are needed to improve areas dominated by ponderosa and white fir–sugar pine trees. Kane has also combined airborne LiDAR with satellite vegetation data to study how natural fires alter tree density of Yosemite forests. They do so in more irregular ways than was previously known, creating variable mosaics of tree clumps. Those studies will aid forest managers designing controlled burns or mechanical thinning to mimic natural fire’s positive effects.

2015-01SightingsF3.jpgClick to Enlarge Image

Now the drive is on to make LiDAR even more useful. For instance, airborne LiDAR discerns only modest amounts of detail below the outer canopy in dense forests, so researchers are trying to fill the gap by adding measurements made with ground-based LiDAR. David Kelbe, a doctoral student in imaging science at Rochester Institute of Technology, recently adapted an industrial LiDAR device to create a portable scanner that can be carried into the woods. There, it can be used to acquire diameter data along the full length of tree trunks with enough detail to model three-dimensional trees. Such data could be useful for commercial forest inventories and for habitat studies, and also for calibrating across the different types of LiDAR studies. “We could take advantage of the fine-scale resolution by linking it to the large geographic coverage by an airborne or space-borne platform,” Kelbe says.

Carnegie Airborne Observatory earth scientist Greg Asner merges up-close and remote observations to get as near as possible to ground truth in tropical forests. He creates carbon maps, geographically accurate models depicting the density of vegetation in the forests; the more abundant the vegetation, the more carbon is sequestered in its roots, stems, and leaves.

To build these maps, Asner combines airborne LiDAR data with non-LiDAR research plot observations, rainfall records, and space-based measurements. By developing algorithms to extract high-resolution vegetation maps from archival data taken by the Landsat satellite, he quickly acquired a vast—and free—satellite data set.

2015-01SightingsF4.jpgClick to Enlarge Image

Following this approach, Asner has mapped large swaths of the Amazon River basin, Peru, Panama, and Hawaii to pinpoint where carbon sinks most urgently need protecting. He feels the urgency of his work: It can take decades to rebuild a damaged forest into a carbon sink, but almost no time at all to cut or burn a forest down. “So we integrate satellite data with the airborne LiDAR in order to scale up,” Asner says. “This helps to greatly reduce cost and improve our speed.”

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Original Source: American Scientist

RIT project wins funding in NYS Regional Economic Development Councils competition

Award, received as part of Finger Lakes Council allocation, will be used to generate jobs

Dec. 12, 2014
Ellen Rosen

Rochester Institute of Technology has received $1.5 million from New York state to fund a new economic development project — MAGIC Spell Studios.

The funding was included in the $80.7 million awarded to the Finger Lakes Regional Economic Development Council at a ceremony today (Dec. 11) in Albany. The awards were part of the fourth annual round in which 10 regional councils across the state competed for a piece of $709.2 million in grants and tax breaks.

“We are very excited about the MAGIC Spell Studios project, and what it will mean for our region,” said RIT President Bill Destler. “We appreciate Gov. Cuomo and the regional council’s support of this project, which we believe will capitalize on work being done at RIT to add great economic value to our community.”

The money will go toward construction of a new building for MAGIC Spell Studios, allowing RIT to create a program that will link the university’s academic programs with high tech facilities needed to commercialize computer gaming, film and animation, graphic design and imaging science projects.

RIT is already a recognized leader in these fields. Among the graduates of its nationally ranked School of Film and Animation are several Academy Award winners. Its game design and development program is ranked among the top in the country, and its alumni are leaders across the technology industry.

MAGIC Spell Studios will capitalize on RIT’s unique academic and research programs to become the center of a regional hub for these industries, attracting and nurturing student entrepreneurs who will drive regional economic development through the creation of businesses.

“We expect that this facility will be a magnet for companies in these industries to co-locate with RIT for access to our students, graduates and faculty conducting research in these areas,” said Jeremy Haefner, RIT provost and senior vice president of academic affairs. “It will leverage our existing strengths to develop and nurture entrepreneurs and drive innovation.”

Part of the goal is to retain the many talented graduates who now must move elsewhere in the country to find employment opportunities.

“We are currently producing the talent that drives these industries around the world,” Destler said. “With MAGIC Spell Studios, we can put Rochester on the map as a national contender. It’s time to engage that talent and grow businesses right here.”

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Original Source: University News

‘Smart dust’ technology could reshape space telescopes
Astronomy and Space Science

RIT scientist and NASA Jet Propulsion Laboratory explore adaptive optical imaging

Dec. 1, 2014
Susan Gawlowicz


A. Sue Weisler

Grover Swartzlander, associate professor at RIT’s Chester F. Carlson Center for Imaging Science, is a co-investigator on an RIT and NASA team exploring a new type of space telescope with an aperture made of swarms of particles released from a canister and controlled by a laser.

Telescope lenses someday might come in aerosol cans.

Scientists at Rochester Institute of Technology and the NASA Jet Propulsion Laboratory are exploring a new type of space telescope with an aperture made of swarms of particles released from a canister and controlled by a laser.

These floating lenses would be larger, cheaper and lighter than apertures on conventional space-based imaging systems like NASA’s Hubble and James Webb space telescopes, said Grover Swartzlander, associate professor at RIT’s Chester F. Carlson Center for Imaging Science and Fellow of the Optical Society of America. Swartzlander is a co-investigator on the Jet Propulsion team led by Marco Quadrelli.

NASA’s Innovative Advanced Concepts Program is funding the second phase of the “orbiting rainbows” project that attempts to combine space optics and “smart dust,” or autonomous robotic system technology. The smart dust is made of a photo-polymer, or a light-sensitive plastic, covered with a metallic coating.

“Our motivation is to make a very large aperture telescope in space and that’s typically very expensive and difficult to do,” Swartzlander said. “You don’t have to have one continuous mass telescope in order to do astronomy—it can be distributed over a wide distance. Our proposed concept could be a very cheap, easy way to achieve large coverage, something you couldn’t do with the James Webb-type of approach.”

An adaptive optical imaging sensor comprised of tiny floating mirrors could support large-scale NASA missions and lead to new technology in astrophysical imaging and remote sensing.

Swarms of smart dust forming single or multiple lenses could grow to reach tens of meters to thousands of kilometers in diameter. According to Swartzlander, the unprecedented resolution and detail might be great enough to spot clouds on exoplanets, or planets beyond our solar system.

“This is really next generation,” Swartzlander said. “It’s 20, 30 years out. We’re at the very first step.”

Previous scientists have envisioned orbiting apertures but not the control mechanism. This new concept relies upon Swartzlander’s expertise in the use of light, or photons, to manipulate micro- or nano-particles like smart dust. He developed and patented the techniques known as “optical lift,” in which light from a laser produces radiation pressure that controls the position and orientation of small objects.

In this application, radiation pressure positions the smart dust in a coherent pattern oriented toward an astronomical object. The reflective particles form a lens and channel light to a sensor, or a large array of detectors, on a satellite. Controlling the smart dust to reflect enough light to the sensor to make it work will be a technological hurdle, Swartzlander said.

Two RIT graduate students on Swartzlander’s team are working on different aspects of the project. Alexandra Artusio-Glimpse, a doctoral student in imaging science, is designing experiments in low-gravity environments to explore techniques for controlling swarms of particle and to determine the merits of using a single or multiple beams of light.

Swartzlander expects the telescope will produce speckled and grainy images. Xiaopeng Peng, a doctoral student in imaging science, is developing software algorithms for extracting information from the blurred image the sensor captures. The laser that will shape the smart dust into a lens also will measure the optical distortion caused by the imaging system. Peng will use this information to develop advanced image processing techniques to reverse the distortion and recover detailed images.

“Our goal at this point is to marry advanced computational photography with radiation-pressure control techniques to achieve a rough image,” Swartzlander said. “Then we can establish a roadmap for improving both the algorithms and the control system to achieve ‘out of this world’ images.”

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Original Source: University News

Imaging science students showcase deer alert system at Imagine RIT
Innovative Freshmen Experience
Student Stories

The concept for a high-tech deer-alert system that could make nighttime driving safer will be on display in the Gordon Field House during Imagine RIT on May 3.

Apr. 25, 2014
Susan Gawlowicz


The cohort of imaging science Ph.D. students finishing its first year in the Chester F. Carlson Center for Imaging Science will exhibit a deer-alert system at Imagine RIT on May 3. Shown in the top row, left to right, are Doug MacDonald, Kamran Binaee, Brittany Ambeau, Kevan Donlon, Viraj Adduru, Zichao Han and Yue Wang. In the bottom row, left to right, are Justin Harms, Utsav Gewali, Jie Yang, Yansong Liu, Osborn de Lima, Kelly Anderson, Zhaoyu Cui, Shusil Dangi, Lauren Taylor and Colin Axel. Not shown is Chi Zhang.

First-year Ph.D. students in the Chester F. Carlson Center for Imaging Science built a long-range infrared dual camera system to warn drivers of deer in their vicinity. The project was assigned to the cohort with the Imagine RIT: Innovation and Creativity Festival on May 3 as a deadline.

“A big problem in the Northeast is the frequency of cars hitting deer, often between 1 and 3 a.m.,” said Roger Dube, professor in the Center for Imaging Science and facilitator of the introductory class for incoming Ph.D. students. “Our vision at night is limited to the region exposed in the headlights, which is at most a couple of hundred feet. At normal driving speeds, this doesn’t give the driver enough time to react.”

Working in teams, the students designed and built a system to see in the dark and warn the driver of nearby deer. Their proof of concept—tested on a big truck—integrates subsystems that collect data with thermal infrared cameras, process the imagery and communicate the proximity of deer within a quarter mile of the vehicle.

The system begins with two thermal infrared cameras mounted on top of a vehicle. The cameras, pointing in opposite directions, read information at far infrared wavelengths and detect heat given off by living things. “Hot” signatures are juxtaposed to the “cool” fingerprints of trees, buildings and other inanimate objects in the surroundings.

The students’ algorithms process images capturing heat from the deer’s bodies. These hot areas in the image are extracted from the background and matched to the templates of deer images the students created.

If there’s a positive match, the deer’s location is passed to a communication system comprised of speakers and 12 lasers mounted on the back of the vehicle with corresponding reflective dots on the windshield.

“The speaker will start beeping faster as you get closer to the deer and the dots with lasers will align where the deer is so the driver doesn’t have to take his eyes off the road,” said Colin Axel ’13 (B.S., imaging science), a Ph.D. student from Rochester. “The whole point is that we don’t want to take the driver’s eyes off the road at the moment when it is most important for them to pay attention.”

The team of Ph.D. students will display the project in subsystems at their booth in the Gordon Field House. They will demonstrate each of the components that create the overall system.“We will have a controlled demonstration of how the whole system operates,” said Justin Harms, a Ph.D. student and a U.S. Air Force officer from St. Louis. “We will also have other experiments using color and thermal cameras, where you can grasp the concept of looking at something not by its color but by how hot it is. You won’t see the room as you would normally see it; you see it as how hot or cold it is.”

The cohort of imaging science Ph.D. students who worked on the deer-alert system includes Doug MacDonald, Kamran Binaee, Brittany Ambeau, Kevan Donlon, Viraj Adduru, Zichao Han, Yue Wang, Justin Harms, Utsav Gewali, Jie Yang, Yansong Liu, Osborn de Lima, Kelly Anderson, Zhaoyu Cui, Shusil Dangi, Lauren Taylor, Colin Axel and Chi Zhang.

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Original Source: University News