Two high school students collected data until they had what they needed to define their star-to-be as a variable — a star that changes brightness.
Reporter Alexis Espinosa with the Dallas Morning News covered the discovery of five stars made by two Dallas high school students as members of an SMU summer physics research program. Called Quarknet, the program enabled the students to analyze data gleaned from a high-powered telescope in the New Mexico desert.
All five stars are eclipsing contact binary stars, pairs of stars that orbit around each other so closely that their outer atmospheres touch. As the stars eclipse, they dim and then brighten as one emerges from behind the other. These stars are categorized as variable stars, stars that change brightness, which make up half the stars in the universe.
Lake Highlands High School seniors Dominik Fritz and Jason Barton are the first high school researchers at SMU to discover new stars.
Fritz and Barton are among nine high school students and two high school physics teachers who conducted physics research at SMU through the QuarkNet program.
By Alexis Espinosa
Dallas Morning News
Dominik Fritz sat in a Southern Methodist University science lab sifting through data. He hoped to discover a star by searching through months of information collected from a telescope in the New Mexico desert 14 years ago.
And then he found it.
He found a star whose variation had not yet been defined. And he would be the one to define it.
He collected data until he had everything he needed to define it as a variable — a star that changes brightness. A day after he submitted the star to the American Association of Variable Star Observers, the organization requested a few minor corrections.
And then, his star was accepted.
“I was so, so happy. My name is out there. I felt like I really accomplished something,” Fritz said. “I can literally tell people … ‘I found a star.’”
Fritz and a classmate, Jason Barton, both discovered stars this summer as part of the SMU’s QuarkNet program.
QuarkNet is a physics teacher development program funded by the National Science Foundation and the U.S. Department of Energy in universities and laboratories across the country. SMU’s QuarkNet program, which began in 2000, also provides research opportunities to high school students like Fritz and Barton, who are seniors at Lake Highlands High School in Richardson ISD.
Treasures of the night sky: Pairs of stars orbit around each other so closely their outer atmospheres touch, so they dim and brighten.
Two Dallas high school students discovered five stars as members of an SMU summer physics research program that enabled them to analyze data gleaned from a high-powered telescope in the New Mexico desert.
All five stars are eclipsing contact binary stars, pairs of stars that orbit around each other so closely that their outer atmospheres touch. As the stars eclipse, they dim and then brighten as one emerges from behind the other. These stars are categorized as variable stars, stars that change brightness, which make up half the stars in the universe.
Lake Highlands High School seniors Dominik Fritz and Jason Barton are the first high school researchers at SMU to discover new stars.
New discoveries in Pegasus, Ursa Major are registered with Variable Star Index
The stars are located in the northern sky constellations of Pegasus and Ursa Major, but can’t be seen by the naked eye.
Working in a campus science building basement laboratory, the students used analysis software, perseverance and patience to parse the data collected (but never analyzed for the purpose of studying binary stars) in 2000 by Robert Kehoe, SMU associate professor of physics.
Kehoe collected the data through ROTSE-I, a prototype robotic telescope at Los Alamos, New Mexico.
“Scientists are driven by the sense of discovery,” says Kehoe, who took the data originally to study gamma ray bursts. “These students can lay claim to information that didn’t exist before their research.”
SMU only university in North Texas offering the nation’s QuarkNet program
Fritz and Barton are among nine high school students and two high school physics teachers conducting physics research at SMU through the QuarkNet program.
QuarkNet is a physics teacher development program with 50 centers at U.S. universities and national laboratories. Funded by the National Science Foundation and the U.S. Department of Energy, the program gives teachers and students opportunities to learn about the most recent discoveries in physics.
Other sponsors include two of the world’s leading high-energy physics research centers — CERN in Switzerland and Fermilab in Illinois. SMU is one of four Texas universities to offer the QuarkNet program and the only QuarkNet university in North Texas.
“High school physics curriculum includes very little modern physics,” says Simon Dalley, a member of the SMU physics faculty and coordinator of its QuarkNet program. “This hurts recruitment to the field and prevents the general population from understanding physics’ contribution to the modern world.”
Ken Taylor, Lake Highlands High School physics teacher, is determined to introduce new physics research to his students. He has participated in QuarkNet at SMU since 2000, seizing opportunities to join physics researchers at high-energy particle colliders at CERN and Fermilab. This is the first summer he has selected students to join him in physics research at SMU.
“I like to support students beyond the classroom walls,” he says. “These students have gone through the whole process of scientific discovery and can use these projects as jumping off points for the next phases of their lives.”
With acceptance into the VSX catalog of variable stars, the students’ names are forever linked with their stars on the official registry.
But instead of creating new star names, star discoverers follow a protocol that includes the name of the telescope and the stellar coordinates.
Both students plan to pursue science careers, Fritz in nuclear engineering and Barton in medicine.
Other student QuarkNet researchers include KeShawn Ivory from Garland High School and Madison Monzingo and Lane Toungate from Lake Highlands High School. In addition, Hockaday School teacher Leon de Oliveira and his four students – Eliza Cope, Allison Aldrich, Sarah Zhou and Mary Zhong — also conducted QuarkNet research this summer.
“These students have made a real contribution to science,” says Farley Ferrante, the former high school physics teacher and current SMU astrophysics graduate student who supervised the students’ research. “A better understanding of variable stars helps us to understand the age and formation of the universe; the sun, which is a variable star; and even the possibility of extra-terrestrial life.”
“You’re looking at things a long time ago in the universe, you can get a sense for the movie of the universe,” said Kehoe. “It’s the evolution of the universe.”
The Texas newspaper the Houston Chronicle covered the astronomy research of physicist Robert Kehoe, SMU professor, and two graduate students in the SMU Department of Physics, Farley Ferrante and Govinda Dhungana.
The astronomy team in May reported observation of intense light from the enormous explosion of a star more than 12 billion years ago — shortly after the Big Bang — that recently reached Earth and was visible in the sky.
Known as a gamma-ray burst, light from the rare, high-energy explosion traveled for 12.1 billion years before it was detected and observed by a telescope, ROTSE-IIIb, owned by SMU.
Book a live interview
To book a live or taped interview with Robert Kehoe in the SMU News Broadcast Studio call News and Communications at 214-768-7650 or email news@smu.edu.
Gamma-ray bursts are believed to be the catastrophic collapse of a star at the end of its life. SMU physicists report that their telescope was the first on the ground to observe the burst and to capture an image.
Texas scientists have spotted a massive explosion in space that dates back 12 billion years, almost to the time of the Big Bang, according to Southern Methodist University in Dallas.
NASA satellites recorded the burst and signalled back to the McDonald Observatory in West Texas. Telescope pictures showed a gamma ray burst, believed to be the collapse of a star.
“Gamma-ray bursts are the most powerful explosions in the universe since the Big Bang,” said graduate student Farley Ferrante, who was monitoring the telescope. “These bursts release more energy in 10 seconds than our Earth’s sun during its entire expected lifespan of 10 billion years.”
The scientists said explosions like this are key to understanding the development of the universe.
“Twelve billion years ago, it was a very different universe,” said Robert Kehoe, physics professor and leader of the SMU astronomy team. “It was just hydrogen and helium. There were no rocks, there was no matter; our solar system had not formed.”
Kehoe says explosions like the one shown in the photo are stars exploding, scattering new elements like carbon, oxygen, silicon and iron into the surrounding area.
SMU is a nationally ranked private university in Dallas founded 100 years ago. Today, SMU enrolls nearly 11,000 students who benefit from the academic opportunities and international reach of seven degree-granting schools. For more information see www.smu.edu.
SMU has an uplink facility located on campus for live TV, radio, or online interviews. To speak with an SMU expert or book an SMU guest in the studio, call SMU News & Communications at 214-768-7650.
A star exploded billions of years back, but the light of this explosion has just reached the earth, allowing scientists to peep into the past of the universe
The news web site digitaljournal.com covered the astronomy research of physicist Robert Kehoe, SMU professor, and two graduate students in the SMU Department of Physics, Farley Ferrante and Govinda Dhungana.
The astronomy team in May reported observation of intense light from the enormous explosion of a star more than 12 billion years ago — shortly after the Big Bang — that recently reached Earth and was visible in the sky.
Known as a gamma-ray burst, light from the rare, high-energy explosion traveled for 12.1 billion years before it was detected and observed by a telescope, ROTSE-IIIb, owned by SMU.
Book a live interview
To book a live or taped interview with Robert Kehoe in the SMU News Broadcast Studio call News and Communications at 214-768-7650 or email news@smu.edu.
Gamma-ray bursts are believed to be the catastrophic collapse of a star at the end of its life. SMU physicists report that their telescope was the first on the ground to observe the burst and to capture an image.
A star exploded billions of years back, but the light of this explosion has just reached the earth, allowing scientists to peep into the past of the universe and figure out what it might have been like during the earliest stages of its development.
The light was observed through a telescope at the McDonald Observatory at Fort Davis in Texas. Called a gamma-ray burst, this stellar explosion is believed to have taken place just after the Big Bang, over 12 billion years in the past.
Farley Ferrante, a physics student at the Southern Methodist University (SMU), which owns the telescope, said: “Gamma-ray bursts are the most powerful explosions in the universe since the Big Bang. These bursts release more energy in 10 seconds than our Earth’s sun during its entire expected lifespan of 10 billion years.”
SMU is a nationally ranked private university in Dallas founded 100 years ago. Today, SMU enrolls nearly 11,000 students who benefit from the academic opportunities and international reach of seven degree-granting schools. For more information see www.smu.edu.
SMU has an uplink facility located on campus for live TV, radio, or online interviews. To speak with an SMU expert or book an SMU guest in the studio, call SMU News & Communications at 214-768-7650.
To put the age of the latest discovery into context, scientists believe the Big Bang occurred 13.81 billion years ago.
The news service Global Post covered the astronomy research of physicist Robert Kehoe, SMU professor, and two graduate students in the SMU Department of Physics, Farley Ferrante and Govinda Dhungana.
The astronomy team in May reported observation of intense light from the enormous explosion of a star more than 12 billion years ago — shortly after the Big Bang — that recently reached Earth and was visible in the sky.
Known as a gamma-ray burst, light from the rare, high-energy explosion traveled for 12.1 billion years before it was detected and observed by a telescope, ROTSE-IIIb, owned by SMU.
Book a live interview
To book a live or taped interview with Robert Kehoe in the SMU News Broadcast Studio call News and Communications at 214-768-7650 or email news@smu.edu.
Gamma-ray bursts are believed to be the catastrophic collapse of a star at the end of its life. SMU physicists report that their telescope was the first on the ground to observe the burst and to capture an image.
It took 12 billion years, but light from a massive explosion that occurred shortly after the Big Bang has just reached Earth.
The rare gamma-ray burst could help scientists understand more about the early universe.
Recorded as GRB 140423A, the explosion was first observed in April by the telescope Rotse-IIIB at an observatory in western Texas owned by Southern Methodist University.
The area of the explosion’s peak afterglow, circled in blue and yellow, can be seen in the image above. A bright star sits to its left.
Gamma-ray bursts are believed to be the catastrophic collapse of a star at the end of its life.
“As NASA points out, gamma-ray bursts are the most powerful explosions in the universe since the Big Bang,” Farley Ferrante, a graduate student at Southern Methodist University who monitored the explosions with astronomers in Hawaii and Turkey, said in a release from the university.
“These bursts release more energy in 10 seconds than our Earth’s sun during its entire expected lifespan of 10 billion years.”
Scientists weren’t even able to detect visual light from gamma-ray bursts until technology improved in the late 1990s. Gamma rays have the shortest wavelengths and can only be seen using special detectors.
SMU is a nationally ranked private university in Dallas founded 100 years ago. Today, SMU enrolls nearly 11,000 students who benefit from the academic opportunities and international reach of seven degree-granting schools. For more information see www.smu.edu.
SMU has an uplink facility located on campus for live TV, radio, or online interviews. To speak with an SMU expert or book an SMU guest in the studio, call SMU News & Communications at 214-768-7650.