Seeing it through and seeing through it

Matt Horst won a spot in the coveted 2015 National Science Foundation (NSF) Graduate Research Fellowship program for his work in developing a 3D real-time wideband microwave camera that can produce images. Sam O'Keefe/Missouri S&T

Matt Horst won a spot in the coveted 2015 National Science Foundation (NSF) Graduate Research Fellowship Program for his work in developing a 3-D real-time wideband microwave camera that can produce images. Sam O’Keefe/Missouri S&T

At 7 a.m. on a weekday, many college students are still asleep. Others hit the snooze button and struggle to get out of bed for an 8 a.m. class. But not Matt Horst. He is usually already at work in the Applied Microwave Nondestructive Testing Laboratory (AMNTL) at Missouri S&T.

Horst, a graduate student pursuing a master’s degree in electrical and computer engineering at S&T, spends most of his time working in the lab running simulations, fabricating circuit boards or reading literature related to his research.

The winner of a coveted spot in the 2015 National Science Foundation (NSF) Graduate Research Fellowship Program, Horst is working to develop a 3-D real-time wideband microwave camera that can produce images. [Read more…]

A golden opportunity

Jamielee Buenemann (left) is recognized by Anna Maria Chávez, CEO of the Girl Scouts of the USA, at the National Young Women of Distinction event in New York.

Jamielee Buenemann (left) is recognized by Anna Maria Chávez, CEO of the Girl Scouts of the USA, at the National Young Women of Distinction event in New York.

Growing up in rural Missouri, Jamielee Buenemann learned firsthand that many small-town residents are wary of renewable energy.

“People think it is either too expensive or too complex,” she says.

As a high school junior, Buenemann set a goal to demystify renewable energy and make it a reality for the average citizen. She also made this project the focus of her Girl Scout Gold Award. [Read more…]

Hitting the sweet spot

Arielle Bodine, an applied math and economics double major, recently researched why professional golfers receive endorsements through the Opportunities for Undergraduate Research Experience at Missouri S&T. She’s shown here at the S&T Golf Course. Sam O’Keefe/Missouri S&T

Arielle Bodine, an applied math and economics double major, recently researched why professional golfers receive endorsements through the Opportunities for Undergraduate Research Experience at Missouri S&T. She’s shown here at the S&T Golf Course. Sam O’Keefe/Missouri S&T

While some undergraduate students peer through microscopes or write computer programs for their research projects, senior Arielle Bodine made the world of professional golf her laboratory. The applied math and economics double major recently took an eagle-eyed look at the factors that led Phil Mickelson and 46 other top professional golfers to pick up valuable endorsements. Her research was part of the Opportunities for Undergraduate Research Experience at Missouri S&T.

“Professional golfers make a significant portion of their yearly earnings from sources that are not tournament purses,” says Bodine. “In fact, many golfers make more money from endorsements and off-course appearances than they do from golfing in tournaments.”

Bodine, of St. Charles, Missouri, credits Dr. Michael Davis, associate professor of economics and an expert in sports economics, with opening the door for her to tackle a research project.

“I was taking his Intermediate Macroeconomic Theory class and he asked me if I had ever done an OURE project,” she says. “I thought it would be cool but had never pursued it. Now I’m absolutely glad I did.” [Read more…]

Smart living in everyday life

The university's eBus and Solar Village are just two of the ways S&T is researching and implementing smarter and more sustainable ways of living. Sam O’Keefe/Missouri S&T

The university’s eBus and Solar Village are just two of the ways S&T is researching and implementing smarter and more sustainable ways of living as part of its Smart Living signature area. Sam O’Keefe/Missouri S&T

Missouri S&T’s Smart Living signature area concentrates on improving your quality of life. Its researchers work to transform home, workplace, transportation and energy infrastructures into “smart” environments.

Smart Living also helps expand the world’s understanding of how people and technology interact. It’s more than just creating sustainable homes. It means developing intelligent systems that will change the future of everyday life.

“Currently, there is a rapid expansion of technology that impacts our lives each day,” says Nathan Weidner, assistant professor of psychological science at S&T. “Weak artificial intelligence systems – algorithms that help us make choices throughout the day – lead us to make better decisions and are having a clear impact on society. These technologies can be so small that they are wearable but have an enormous influence on us.”

Smart Living draws on S&T’s strengths in cyber security, sustainable energy research, social dynamics, usability, big data analytics, architectural design, behavioral and environmental psychology, and transportation and infrastructure to lead research and development efforts toward a more secure and sustainable society.

“People in these new smart systems will have to learn to share resources,” says Bruce McMillin, professor of computer science and associate dean of the College of Engineering and Computing. “With that comes the need for privacy and security. This allocation of resources carries a lot of personal information in it, and we must rely on history to give us clues to help predict the future of this technological advance.”

“Trust in human-computer interaction and AI decisions is important, but there are immediate problems that need to be considered as well,” says Weidner. “For example, if a metropolis has a large number of electric car drivers, what will happen when they arrive home for the night and all plug in their vehicles at 10 p.m.? We don’t want rolling blackouts to happen to that city nightly, so energy storage needs to be considered.”

Research in Smart Living includes:

  • Smart grid and transportation systems. Intelligent peer-to-peer systems manage renewable energy resources like wind and solar, which are backed by energy storage, including fuel cells and batteries, to provide energy to buildings. S&T’s Solar Village is a “micro” example of a smart grid in operation. Transportation and energy systems interlink with improved urban planning to provide individualized, cost-efficient transportation.
  • Decision-making and governance. Smart living requires more than data and analytics. Understanding how people process, react to and interact with information and technology will lead to a sustainable shared governance of resources.
  • Privacy and security. Intelligent systems must be resistant to security attacks while maintaining personal privacy and supporting the users’ trust in the system. In Smart Living, people must adapt to the technology and the technology must adapt to the people. The result is enhanced trust and security.
  • Building materials. New smart materials turn buildings into “living laboratories” that, through advanced analytics, provide feedback to inform users as well as to adapt to human behavior. This leads to improved infrastructure, chemical or biological environments, and decision-making. Embedded sensors can monitor how efficiently a building uses energy, water or even bandwidth, empowering people to make informed decisions on how to use resources wisely.

“Usually, we think of technology as leading the charge in this area, but if we do that we risk missing the human aspects of living,” says Nancy Stone, professor of psychological science at S&T. “The human aspects have a very high potential for research, with acceptance and ethics both needing to be addressed to ensure the needs of individuals are being met.”

S&T’s Smart Living initiative is led by McMillin and Stone. Smart Living is an interdisciplinary effort pursued jointly by faculty from arts, languages, and philosophy; business and information technology; chemical and biochemical engineering; civil, architectural and environmental engineering; computer science; economics; electrical and computer engineering; engineering management and systems engineering; English and technical communication; history and political science; mathematics and statistics; mechanical and aerospace engineering; and psychological science. It also involves industry partners and other University of Missouri System campuses to make the research a statewide effort.

Story by Peter Ehrhard
Video by Terry Barner

Working to enjoy the ride

Graduate student Manish Sharma works on his nuclear engineering research in Fulton Hall. Sam O'Keefe/Missouri S&T

Manish Sharma, a graduate student at Missouri S&T, works on his nuclear engineering research in Fulton Hall.

During high school, Manish Sharma often studied by candlelight. Power outages lasting six to eight hours a day were a fixture of hometown life in Khurja, India. For most of his peers, studying in America was a distant dream. But Sharma never gave up on his goal.

After earning a bachelor’s degree in electrical engineering and a master’s degree in nuclear engineering from universities in India, Sharma set his sights on Missouri S&T to complete his Ph.D. in nuclear engineering.

“I never gave up because I knew tomorrow would be better,” he says. “I turned my plans into actions and went out of my comfort zone to make things happen.” [Read more…]

Learning outside the classroom box

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Missouri S&T students enrolled in the summer Field Ecology course return to the field station at the Bohigian Conservation Area after conducting experiments in Mill Creek.

Southwest of Rolla, 10 acres of land once farmed by some of the area’s earliest settlers is now being explored by Missouri S&T students, who are themselves pioneers of a sort.

Students who took Field Ecology, Cave Biology or Vegetation of the Ozarks courses over the summer were among the first to spend more time in this outdoor laboratory than inside a classroom. They studied in and alongside three spring-fed ponds, a wetland fen, a nearby stream and countless flora and fauna. [Read more…]

Below the Earth’s surface

Nathan Bashir, a graduate student in both geology and geophysics, and geological engineering, studies limestone formations, for which he says Missouri, is an ideal location.

Nathan Bashir, a graduate student in both geology and geophysics, and geological engineering, studies limestone formations, for which he says Missouri, is an ideal location. Photo by Sam O’Keefe/Missouri S&T

Nathainail “Nathan” Bashir is more at home in the field than in the classroom. The graduate student, who is earning a master’s degree in both geology and geophysics and geological engineering, constantly travels around the state studying bedrock variations and perfecting ways to find their depth.

Bashir is studying the Burlington and Keokuk limestone formations in the southwest Missouri town of Brookline. “Missouri is a great place to be for my studies. All around the area are caves, limestone deposits and other surface data to help me find bedrock.”

Bashir uses two main mapping techniques to find bedrock’s depth: multichannel analysis of surface waves and electrical resistivity tomography. After performing these tests, he combines the results. This process helps Bashir cut through the “clutter” of false readings that can be caused by caves and sinkholes, and identifies the differing levels of bedrock depth.

The geology of the area he studies is quite different from that of his hometown. A native of Nonar, Pakistan, Bashir studied at the Quaid-i-Azam University in Islamabad, Pakistan, prior to moving to the United States.

“I love being in the field and seeing what we actually study in classes,” Bashir says. “There are so many interesting places that are close by, you have to go see them.”

Last summer, Bashir was on co-op at Engineering Consulting Services (ECS) in Virginia. His work dealt mainly with structural geology and included analyzing a construction site for a new National Science Foundation facility.

Besides his research, Bashir serves on the International Student Council at Missouri S&T, sings in the choir at the Campus Christian Ministry and is a part-time clothing model.

“I starting modeling back in Pakistan to help out a friend who had designed clothes for a university event,” says Bashir. “After that, I would occasionally be asked by others who saw the photos to model. It is a fun hobby and something that lets me see a whole new industry.”

By Peter Ehrhard

Close-knit S&T lures, launches Lampe to success

Missouri S&T graduate Kyle Lampe, now an assistant professor at the University of Virginia, is conducting research that may one day lead to treatments for multiple sclerosis and other diseases.

Missouri S&T graduate Kyle Lampe, now an assistant professor at the University of Virginia, is conducting research that may one day lead to treatments for multiple sclerosis and other diseases. Photo contributed by the University of Virginia

Twenty-one thousand, three-hundred ninety-five. That’s the difference between Kyle Lampe, the English literature scholar and Kyle Lampe, the chemical engineer. That number is the difference in enrollment between Iowa State University (26,110) and Missouri S&T (4,715) when Lampe started college in 1999.

Bigger was not better for Lampe, who earned a bachelor of science degree in chemical engineering at Missouri S&T in 2004, and now is an assistant professor of chemical engineering at the University of Virginia.

“I didn’t want to go to Iowa State because it was just too big,” says Lampe, who grew up in Clarinda, Iowa – a town of 5,806. “I felt like I would get lost there.

“When I went to Rolla, it was the right size school. I didn’t know anybody, but I got to know a lot of people, and the professors knew your name. When I got to Rolla … everybody was on equal footing. Nerdy was cool.”

These days, Lampe leads his own “nerdy” engineering students in cutting-edge research that may one day lead to cures or treatments for diseases such as multiple sclerosis, Alzheimer’s disease, Parkinson’s disease and people who have suffered a stroke or a spinal cord injury. The work is done through the Lampe Biomaterials Group, which launched at U.Va. in 2014.

There, Lampe is using synthetic polymer materials to encapsulate oligodendrocytes in a 3-D hydrogel that simulates properties of the brain. Oligodendrocytes are cells with many branches that support and insulate axons in the central nervous system by wrapping the axons in a myelin sheath. In people with MS, Lampe says, the oligodendrocytes go haywire. Finding a way to target or replace the malfunctioning oligodendrocytes could lead to a treatment.

For people who have suffered a stroke — the second-leading cause of death worldwide — treatments such as transplanting neural stem cells are ineffective, Lampe says, because 95 percent of those cells die within a week. Using a new biodegradable polymer hydrogel might be more effective because as they erode, they scavenge free radicals, thus acting like an antioxidant in the brain. Being able to place the slowly released antioxidants in a specific site of injury could help limit a stroke’s damage, Lampe says.

It’s the kind of work Lampe was — well, maybe not born to do, but it’s his life’s work now.

“I knew I was interested in engineering and science, the STEM disciplines,” says Lampe, who saw one of his older brothers, Paul, graduate from S&T in 1990 with an electrical engineering degree.

Kyle credits his advisor, Oliver Sitton, associate professor of chemical and biochemical engineering, with igniting his spark for research. With Dave Westenberg, associate professor of biological sciences, he dove into research.

“When you meet him, you know he’s going to be successful,” says Westenberg while leafing through Lampe’s old research notebook. “He picks up what he learned, and he works hard to put his own stamp on it.”

From Rolla, Lampe went to the University of Colorado Boulder for his Ph.D. in chemical engineering. After five years at Colorado, Lampe worked as a post-doctoral fellow at Stanford University for three years to prepare for a research-intensive faculty position.

He has no problem with motivation.

“The thing I’m most excited about … the thing that gets me up is working with students,” Lampe says. “The fun part is, it’s different every day. There’s always something new and exciting.”

At S&T, he kept busy, not just with coursework. He was a resident assistant for two years at Thomas Jefferson Residence Hall, and then was the head RA at the Quad. He also acted in nine plays and musicals, including My Three Angels, The Foreigner, My Fair Lady, Guys and Dolls, and Camelot.

And he met his wife of eight years, Lisa Hartman Lampe, who earned her bachelor of science degree in applied mathematics from S&T in 2004. Lampe also works at Virginia as the director of undergraduate success in the School of Engineering and Applied Science.

For Kyle, everything that has followed started at S&T.

“Obviously, I got my initial training in how to approach research not from a lecture course, but with an approach toward getting the students to ask the questions,” Lampe said. “Moreover, I found this trait in many of the leaders at (S&T); students were really imbued with the authority to do things. We got the direction and support we needed and often failed. But that was part of it. As an RA, we had a lot of training, but the learning was a process, never complete.

“Honestly, though, I would say the most lasting impact of my time in Rolla was that I met and wooed my wife, who is my partner in intellectual, social and personal challenges every day.”

By Joe McCune

 

One last dip in the deep end

Justin Levy, who recently graduated with his bachelor’s degree in geology, waves to the camera while snorkeling off the coast of San Salvador Island in the Bahamas while on a nine-day field study trip.

Justin Levy, who recently graduated with his bachelor’s degree in geology, waves to the camera while snorkeling off the coast of San Salvador Island in the Bahamas while on a nine-day field study trip.

Justin Levy completed his collegiate career at Missouri S&T doing what he enjoys most – traveling.

Levy was one of eight geology and geophysics students to join Dr. David Wronkiewicz, associate professor of geology and geophysics, on a nine-day field study trip to San Salvador Island in the Bahamas in May. The group left just days after Levy crossed the stage at commencement with his bachelor’s degree in geology.

Although the students did group research on the geological formations and processes occurring on the island and their interdependency on biologic processes, each student also had the opportunity to do individual research.

The group spends some time studying the Cockburn Town fossilized reef.

The group spends some time studying the Cockburn Town fossilized reef.

With a passion for paleontology, Levy focused his research on the types of fossils found on the island. He studied a section of the island called the Cockburn Town fossil reef, which is made up of fossilized coral and shell fragments. He also tried to find fossilized decapods such as crabs, shrimps and lobsters.

“I wanted to compare the evolution of them (the decapods), and see if any evolution had taken place in the last million years,” says Levy. “If it had, it could signify a drastic increase or decrease in the food supply. Say, if one species had gotten much bigger, it could mean there was an increased food supply to allow them to grow to that size.”

Unfortunately, Levy didn’t find any decapod fossils, but he still learned a great deal about the nature of field studies.

“I found out that field research never goes the way you want it to go,” he says. “I thought I had an idea of what I was going to do. I thought it would be fairly easy; that everything would go my way. But I learned that you plan, plan, plan, and when you get to the field, you modify, modify, modify.”

Dr. David Wronkiewicz, associate professor of geosciences and geological and petroleum engineering, holds some organic material pulled from the hypersaline water of Storr’s Lake while researching the shallow lake on San Salvador Island.

Dr. David Wronkiewicz, associate professor of geology and geophysics, holds some organic material pulled from the hypersaline water of Storr’s Lake while researching the shallow lake on San Salvador Island.

In addition to studying the fossilized reefs of Cockburn Town, the students studied modern reefs, hypersaline lakes and cave systems. Much of their research was conducted in the water, either snorkeling on offshore coral reefs or wading in the shallow water of inland Storr’s Lake. They even did several snorkeling dives at night, encountering sea turtles and a shark.

“James Hutton, the father of modern geology, said that the present is the key to the past,” says Wronkiewicz. “The diversity of geology on the island allowed the students to see Hutton’s concept of past and present geologic processes adjacent to one another in only a few hours of time.”

Levy and other students on the trip wrote about their experiences on S&T’s Miners Abroad Blog. Levy wrote about the striking lack of fresh water on the island. A Club Med resort was built on the island in 1994, he wrote, which increased the island’s freshwater pump rate by some 400 percent. By the early 2000s, the island’s fresh water had dried up. Nowadays, locals use rain collection systems to collect freshwater, then purify it.

The group poses for a picture on San Salvador Island.

The group poses for a picture on San Salvador Island.

The group explored a “blue hole” that used to pump fresh water from beneath the island, but now it pumps salt water. Blue holes are inland caves or underwater sinkholes sometimes called vertical caves. These types of studies using blue holes as well as sea-level proxies can tell researchers about the past environment and help to predict the future, according to Levy.

Levy says he’s thankful for his time at S&T, and the many opportunities he had to travel as a geology student, which included three weeks of field camp in Kansas, Oklahoma, Texas and New Mexico; three weeks of advanced field camp in Utah and Arizona; a summer trip to Bolivia with Engineers Without Borders; and a semester as an exchange student in Hong Kong.

“This school has allowed me to find my passion, and that is travel,” he says.

Story by Greg Katski

Photos by Justin Levy

Weathering the storm(water)

Katie Bartels, a sophomore in environmental engineering, conducts her experiment on the green roof on top of Emerson Electric Co. Hall.

Katie Bartels, a sophomore in environmental engineering, conducts her experiment on the green roof on top of Emerson Electric Co. Hall. Photo by Sam O’Keefe

For Katherine Bartels, environmentalism is all about balance. “It is finding the best solution for humans and the environment without sacrificing one for the other,” she says.

Bartels follows this mantra in her current research project. She studies the volume and quality of stormwater saved from runoff by the green roof on top of Missouri S&T’s Emerson Electric Co. Hall.

The green roof features 16,000 plants arranged in the shape of a shamrock. Most of the plants growing on the roof are a variety of sedum and all were chosen for their ability to thrive in direct sun and wind with limited water. The roof is divided into three sections, each covered with different roofing materials, which allow S&T researchers to compare the water runoff control, water quality and thermal properties of each material.

Bartels, a sophomore in environmental engineering from Independence, Missouri, started the experiment last summer as part of the Opportunities for Undergraduate Research Experiences (OURE) program, and plans to continue her research until she graduates. Joel Burken, professor of civil, architectural and environmental engineering and director of the Environmental Research Center for Emerging Contaminants, directs the research.

Bartels says that although the green roof absorbs a significant amount of stormwater, the stormwater that is washed out has much higher concentrations of nitrogen and phosphate than a typical black roof. When excessive nitrogen and phosphorous levels end up in local waterways, undesirable side effects such as algae blooms can occur. When algae die, they decompose. The decomposition consumes oxygen, and with less oxygen, naturally occurring aquatic plants, fish, crustaceans and other organisms can die. Algae blooms also produce algal toxins that directly pollute the source of drinking water intake.

So now, Bartels is researching how much ground soil is necessary on a green roof to fully absorb the stormwater and minimize the amount of nutrients in the runoff. She is also studying the cooling effect that green roofs have on urban “heat islands.” An urban heat island is a city or metropolitan area that is significantly warmer than its surrounding rural areas due to human activities. That project was initiated by Madison Gibler, a graduate student who plans to complete her master’s degree in May.

“What our research does is maximize the water source potential to cool the urban heat islands, but minimize the amount of nutrients in the runoff,” Bartels says.

Once a month, Bartels tests the rainwater on the green roof. She uses small plots of soil to trap the stormwater, and then filters it through plastic tubes to paint buckets where the runoff can be extracted and tested for nitrogen and phosphate. Some of the plots feature sedum plants. Others are just covered with rocks and soil. By testing varying plots, Bartels can get an idea of the impact different plants and soils have on the stormwater.

She presented her research to the state’s top legislators in Jefferson City on March 10 as part of the annual Undergraduate Research Day at the Capitol.

Bartels was also just accepted into the Aaron and Zelda Greenberg Scholars Program in the civil, architectural and environmental engineering department, in which students work with faculty advisors to develop a program of independent research study that will weave through both bachelor’s and master’s degree programs.

Bartels says she has always known that she wanted to channel her love of science into an environmentally focused career.

“I remember in elementary school reading about the polar ice caps melting. Then I saw a picture of a polar bear swimming in the ocean and my heart broke,” she says. “That’s when I knew I wanted to do anything I could to help the cause. When you’re passionate about something, you develop skills you might not have had.”

Bartels’ passion for developing clean water took root in high school, where she first learned about diverting stormwater runoff using rain gardens and green roofs in her environmental science class.

Bartels says her teacher used a low-lying recreation field with poor drainage as an example.

“I said, ‘Why don’t we build one?’” says Bartels.

Her teacher agreed, and the class built the school’s first-ever rain garden.

“It’s still there,” Bartels says. “And it’s a good feeling to say that.”

Bartels is treasurer of Missouri S&T’s Water Environment Federation (WEF) student chapter.

The student organization is heavily involved in environmental cleanups, and does float trip and sinkhole trash pickups at least once a year. The organization also monitors the water quality of Beaver Creek in southern Phelps County for the Missouri Department of Natural Resources, taking water quality samples twice a year, and makes presentations at local primary schools.

Bartels hopes to work for the Environmental Protection Agency some day, maybe testing and improving water quality.

By Greg Katski

For Friz, NASA holds universal appeal

Doctoral student Paul Friz worked with NASA last fall in California and is working with the space agency again this year in Langley, Virginia. Here he’s at the Langley gantry, where crash tests are conducted on spacecraft, aircraft and helicopters.

Doctoral student Paul Friz worked with NASA last fall in California and is working with the space agency again this year in Langley, Virginia. Here he’s at the Langley gantry, where crash tests are conducted on spacecraft, aircraft and helicopters. Contributed photo by David C. Bowman, NASA

When he was a teenager, Missouri S&T doctoral student and NASA employee Paul Friz looked up into the night sky, the twinkling points of light a thousand beacons in the darkness, irresistible. He was hooked.

So when he was 14, Friz saved up his lawn-mowing money and bought his first telescope – an 8-inch Dobsonian Reflector – to bring the sky’s lights up close. He looked at the gas giant Saturn; it’s the solar system’s sixth planet from the sun and looks like a star to the naked eye, but its rings and moons came to life in his telescope’s lens. Then he went farther into the heavens and out of Earth’s solar system – somewhere between 520 to 610 light years out – to view M44, or the Beehive Cluster, located in the constellation Cancer.

“I believe I chose those objects because they were easy to find in the sky, and I didn’t really know what I was doing at that point,” Friz says.

Looking through that first telescope in a cemetery behind his Creve Coeur, Missouri, home was the first step in a journey that has led Friz, 25, to where he is today: working as a NASA Pathways intern in Langley, Virginia, and pursuing his Ph.D. in aerospace engineering from S&T.

At NASA, he’s learning software tools that will help him complete cost analyses for space missions, taking into account a mission’s lifetime, research and development, maintenance, operating costs, scientists’ hours – basically everything that has a dollar amount.

Before that, Friz was at NASA’s Jet Propulsion Laboratory in Pasadena, California, as an assistant to the project manager on the Rosetta mission that put an orbiter around comet 67P/Churyumov-Gerasimenko. His specific job involved writing software to analyze the data coming from the Microwave Instrument for Rosetta Orbiter, or MIRO, that’s on the Rosetta spacecraft. MRIO measures the comet’s gas emissions, which, Friz says, are mostly water with smaller amounts of ammonia, carbon dioxide and methanol.

He was there when the orbiter launched the Philae lander that synched up with and landed on the comet. When it finally touched down and started sending data, the relief in the room was palpable.

“It was awesome,” Friz says. “It definitely was one of the most exciting experiences in my life.”

Last fall, Paul Friz worked on the joint European Space Agency and NASA project that deployed the Rosetta orbiter around Comet 67P/Churyumov-Gerasimenko. This image of the comet was taken March 25, 2015, from a distance of 86.6 km from the comet’s center.

Paul Friz worked on the joint European Space Agency and NASA project that deployed the Rosetta orbiter around Comet 67P/Churyumov-Gerasimenko. This image of the comet was taken March 25, 2015, from a distance of 86.6 km from the comet’s center. Contributed photo by ESA-European Space Agency. Used with permission under license: http://creativecommons.org/licenses/by-sa/3.0/igo/

The path that led him to being there in the room with the other NASA scientists just sort of came about naturally.

“There was no real eureka moment,” he says of his early stargazing days, which included trips to an aunt and uncle’s house in a remote area east of Rolla. “Mostly I was just really interested in exploring and learning awesome things about the universe.”

After earning his bachelor of science degree in physics from Truman State University in Kirksville, Missouri, he came to S&T and earned a master of science degree in aerospace engineering. He worked on two different projects during his master’s studies, and both are part of his thesis.

Because his interests are wide and varied – he was an orchestral violinist at Truman State and is an accomplished photographer – he hasn’t settled on a Ph.D. area of concentration. He’s plenty busy as it is with the work he’s doing for NASA – his dream long-term employer. Projects such as sending astronauts to Mars and an asteroid redirect project that aims to capture an asteroid and put it in orbit around the moon hold his imagination.

“They’re bigger than anything NASA has done; bigger than the Apollo landing,” Friz says.

He acknowledges, however, that these big-dream projects have no guarantee of being funded.

“It seems that Mars has been 20 years away ever since we landed on the moon,” he says.

Still, he’s undeterred. The stars of his youth are the stars of his future.

“Going to space has always been a dream of mine,” he says. ”If I ever have the opportunity to be an astronaut I will take it, but there are thousands of other people who are more qualified for that job than I am. So right now, I’m not betting on it. But I am aligning my career and lifestyle so that I can take the opportunity if it comes up.”

By Joe McCune