Karachi-born quantum astrophysicist Nergis Mavalvala, Associate Department Head of Physics at MIT is a member of the team of scientists that announced on Thursday the scientific milestone of detecting gravitational waves, ripples in space and time hypothesised by physicist Albert Einstein a century ago.
Professor Mavalvala, whose career spans 20 years, has published extensively in her field and has been working with MIT since 2002.
Mavalvala did her BA at Wellesley College in Physics and Astronomy in 1990 and a Ph.D in physics in 1997 from the Massachusetts Institute of Technology.
Before that, she was a postdoctoral associate and then a research scientist at California Institute of Technology (Caltech), working on the Laser Interferometric Gravitational Wave Observatory (LIGO).
She has been involved with LIGO since her early years in graduate school at MIT and her primary research has been in instrument development for interferometric gravitational-wave detectors.
She also received the prestigious MacArthur Foundation Award in 2010.
The girl from Karachi
Born to a Parsi family in Karachi, Mavalvala received her early education from the Convent of Jesus and Mary school, an administration official from the educational institute confirmed to Dawn.com.
She later moved to the United States as a teenager to attend Wellesley College in Massachusetts, where she is said to have a natural gift for being comfortable in her own skin, according to an article published on thesciencemag.org website.
“Even when Nergis was a freshman, she struck me as fearless, with a refreshing can-do attitude,” says Robert Berg, a professor of physics at Wellesley.
“I used to borrow tools and parts from the bike-repair man across the street to fix my bike,” Mavalvala says.
In an earlier report, Mavalvala’s colleague observed that while many professors would like to treat students as colleagues, most students don’t respond as equals. From the first day, Mavalvala acted and worked like an equal. She helped Berg, who at the time was new to the faculty, set up a laser and transform an empty room into a lab. Before she graduated in 1990, Berg and Mavalvala had co-authored a paper in Physical Review B: Condensed Matter.
Her parents encouraged academic excellence. She was by temperament very hands-on. “I used to borrow tools and parts from the bike-repair man across the street to fix my bike,” she says. Her mother objected to the grease stains, “but my parents never said such skills were off-limits to me or my sister.”
So she grew up without stereotypical gender roles. Once in the United States, she did not feel bound by US social norms, she recalls.
Her practical skills stood her in good stead in 1991, when she was scouting for a research group to join after her first year as a graduate student at MIT. Her adviser was moving to Chicago and Mavalvala had decided not to follow him, so she needed a new adviser. She met Rainer Weiss, who worked down the hallway.
“What do you know?” Weiss asked her. She began to list the classes she had taken at the institute—but the renowned experimentalist interrupted with, “What do you know how to do?” Mavalvala ticked off her practical skills and accomplishments: machining, electronic circuitry, building a laser. Weiss took her on right away.
Mavalvala says that although it may not be immediately apparent, she is a product of good mentoring.
From the chemistry teacher in Pakistan who let her play with reagents in the lab after school to the head of the physics department at MIT, who supported her work when she joined the faculty in 2002, she has encountered several encouraging people on her journey.
good to see…
Whether “space” physically interacts in a gravitational field or not does not address the problem that the non-Euclidean geometry of the general theory of relativity is self-contradicting. Even if Einstein is correct that “space” does interact in a gravitational field or near massive bodies, his statement that “in the presence of a gravitational field the geometry is not Euclidean” cannot be correct if that non-Euclidean geometry is self-contradicting.
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