Showing posts with label Women in Astronomy. Show all posts
Showing posts with label Women in Astronomy. Show all posts

Thursday, March 5, 2026

Crosspost: Meet 7 Women Who Broke Barriers in Astronomy for Women's History Month

Welcome to Women's History Month. This week we feature Sam Cohen's article for Iowa Starting Line, "Meet 7 women who broke barriers in astronomy for Women's History Month." Cohen presents some of astronomy's most famous women as the month kicks off.

"In recognition of Women’s History Month, we’re celebrating the lives and careers of seven pioneering women who have made history with their scientific achievements.
Many corners of the scientific world have been profoundly impacted by the work of women. They’ve blazed a trail across every field, breaking down barriers for themselves and others in the process. These extraordinary women have discovered comets, created classification systems, and stared into the abyss of black holes.

From the first Indian woman in space to the “Hidden Figures” of NASA, these women have made significant contributions to astronomy and beyond."


Nancy Roman. Photo: NASA


Thursday, January 29, 2026

Meg Urry's Full Remarks from CSWA/1400 Degrees Event AAS 247

On January 5, 2026, the CSWA partnered with 1400 Degrees to host a networking and community event at AAS 247. Meg Urry delivered the remarks at the event based on her foreword for Picture an Astronomer. We wanted to publish her remarks here, in full, for those not at the event. Her wisdom, drawn from a long career, and forged through being one of the only women in the room, encourages us to keep supporting all women in astronomy.

First Conference on Women in Astronomy, Baltimore, 1992.

"Many thanks to Gabriele Betancourt for inviting me to say a few words

about the quest for equity in our profession.Over the 50 years since I was in college, I’ve witnessed a lot of change and that is my topic.

I came to astronomy through physics departments, where there were even fewer women than in astronomy departments. For example, I was the only woman in my year who majored in physics at Tufts, then 1 of only 4 women among the 100+ graduate students in the Johns Hopkins Physics Department.
I didn’t think too much about this at the time, partly because I didn’t expect barriers to becoming a scientist. In the 1960s and 70s, civil rights laws had made discrimination illegal, and second-wave feminism opened up a world of new opportunities. My parents had very high expectations, and as a kid, I dreamed of being the first woman astronaut, Supreme Court justice or U.S. president (60 years later, we’re still waiting on that one). 
If I’d thought harder about why there were so few women in my classes, I might have said women weren’t very interested in physics and astronomy.
I was very naïve! 
With hindsight, many people interested in physics, and good at it, dropped away for one reason or another—like Eileen Pollack, one of the first two women to major in physics at Yale, whom I met in 2010 when she was writing her wonderful book, “The Only Woman in the Room: Why Physics Is Still a Boys’ Club,” to explain why she became a writer instead of her lifelong dream: a theoretical physicist. 
Back then I didn’t realize women could be driven away by an environment that was unwelcoming at best and hostile at worst. 
I was usually one of the stronger students in my physics classes. Still, people suggested I would get ahead mainly because of advantages given to women. (How many of you have heard this kind of thing?) The same language persists today—people say that women, people of color, members of the LGBTQ+ community, and other outsiders have risen to leadership positions only because they are “DEI hires.”
Meanwhile, I often felt like a fish out of water, or at least a blue fish in a sea full of red fish. That’s why simply hearing the name of a women astronomer was enormously reassuring. 
At AAS meetings like this one, I would notice the few other women, each like a prize, an encouragement, an unspoken sign that what I was trying to do wasn’t crazy. (Back then, there was never a line in the women’s bathroom. Now look at all the women here tonight!) 
My friend Anne Kinney, in her hilarious after-dinner speech at the 1992 Women in Astronomy meeting in Baltimore, talked about Margaret Burbidge being elected President of the AAS, and how hugely meaningful that was for her, despite knowing little to nothing about her. Anne said, “The name Margaret Burbidge was the light at the end of a very long, dark tunnel for me… If I had never heard that name, I am not sure that I would be in the field today.” Instead, Anne went on to a brilliant career working on the Hubble Space Telescope and at NASA and the NSF.
At some point, I started to think about all the women—and other outsiders—who weren’t able to stick it out, who lacked the support or resources that I had. I was, like Anne, so thirsty for role models. Weren’t we all? Far from having an easier path, we were running a tough race while handicapped with extra-heavy weights.
One particular conversation when I was a postdoc in the 1980s typified both the ubiquity and inaccuracy of the upside-down notion that women had it easier than men. It started with the usual statement from a male colleague that, thanks to affirmative action, I would have no difficulty advancing in the field (a claim wildly contrary to my experience to that point). I challenged him to substantiate that view. He launched into a story about a woman hired as faculty at a top university despite her weak qualifications, and despite overwhelming competition from an outstanding young man for whom the job had actually been intended. But an interfering Dean had insisted that this woman be added to the short list and then insisted that she be hired. I might have believed this story, but when I asked who the woman was and what her research area was, the storyteller didn’t know any details. Wait, I said, you don’t know who she is or what she does but you are sure she was unqualified? “Everyone knows this is true,” he responded.
As scientists, we know this isn’t how evidence and scientific analysis is supposed to work. Before coming to conclusions, we seek facts and are skeptical of broad claims—you don’t just accept some story because it aligns with your beliefs. Later, I happened to meet someone who had been on the actual search committee for that position. When I recounted the story to him, he—a person who was there, who participated in the deliberations and the decision to hire this woman—told me the story was flat out wrong. In fact, the woman had been on the short list from the get-go and was hired because she was the strongest candidate by far. According to this first-hand account, she blew the rest of them out of the water, including the young man who was a supposed shoo-in. (Maybe don’t repeat stories you can’t substantiate.)
This jolted me into a new awareness of the realities of my profession. I began to see that women were judged differently than men—indeed, much more harshly—which the social science literature confirms. (1998: Why So Slow? The Advancement of Women, by Virginia Valian, which summarizes a great deal of social science research.) Even today, women’s achievements are often discounted because of an assumed (nonexistent) advantage. (This book was a Eureka moment; it suddenly explained everything I had seen happening around me.)
Let me pause here to acknowledge that as a kid, I learned gender was binary; only later did I come to appreciate its fluidity and range. I am grateful to the friends and family and colleagues who enlightened me. Meanwhile, even though “women in astronomy” is too restrictive a frame, binary statistics do provide a handy metric for tracking change. 
In 1987, I took a postdoc position at the Space Telescope Science Institute (STScI), created in 1981. At that time, the tenure-track staff of 60 included only one woman (Neta Bahcall). This was despite the fact that women received 10-20% of the PhDs in astronomy in the 1980s. Three years later, I was the third woman hired onto the tenure track, after Anne Kinney. She and I started asking, “Why so few?” which prompted the Director, Riccardo Giacconi, to start asking his own questions, which led to STScI hiring Melissa McGrath, Stefi Baum, Laura Danly, Anuradha Koratkar, and many others, adding to amazing women on the operations staff, like Olivia Lupie, Vicki Balzano, and Pat Parker.
But better numbers were not enough. All the women at STScI were underpaid relative to the men. No matter how hard we worked, how many technical contributions we made, how many papers we wrote, how much grant money we brought in, we were not afforded the opportunities given our male counterparts, we were not nominated for internal or external recognition. Internally, we were less likely to be seen as academic stars, more likely to be criticized or overlooked. The discrimination was fairly blatant.
In response, the women banded together, at all levels—tenure-track, scientist track, research assistants, technical staff. We started having monthly lunches. At first, we mostly vented but eventually we dug into what was going on. We read about statistics, unconscious bias, stereotype threat. With the strong support of STScI management, we organized the first-ever conference for women in astronomy, in 1992. The registrations poured in and we quickly filled to capacity (limited by the size of the STScI auditorium). 150 of the 200 attendees were women. (Burbidge, Rubin, Wolff, Bahcall, Elmegreen, Humphreys, Mead, …)
None of us had ever been in the presence of so many women astronomers before. It induced in us a mental paradigm shift, analogous to how the famous 1968 Apollo 8 photo reframed humanity’s view of the Earth. We started to think differently about the lack of women on faculties, on speaker rosters, on lists of prize recipients. There wasn’t a dearth of talented women—they were simply under-recognized, not first to come to mind, ignored, passed over.
After the meeting, we turned conference discussions into the Baltimore Charter for Women in Astronomy. This brief manifesto stated the problem, recommended some simple improvements such as greater transparency and affirmative approaches, and called on everyone in the profession to be part of the solution. Despite the modesty of the Charter language, only a few institutions agreed to endorse it. I’m not sure why there was resistance. I am very grateful to Debbie Elmegreen, who persuaded the American Astronomical Society (AAS) to endorse the “goals of the Baltimore Charter” despite some opposition (including from women).
We had turned a corner. The focus was no longer, "What is the problem?" It was: Time to make change.
We went on the offensive, writing the Committee on the Status of Women in Astronomy’s newsletter STATUS and the AASWOMEN listserv, inviting experts to CSWA sessions at AAS meetings, putting forward names for women speakers at conferences, and nominating women for prizes. And things did begin to change faster. Networking among women and collective activism were the key. 
Despite the 1992 meeting’s initial focus on women, we understood early on that the frame was far broader than gender. It was obvious that outsider status could follow from “gender, gender identity or expression, race, color, national or ethnic origin, religion or religious belief, age, marital status, sexual orientation, disabilities, veteran status,” and other reasons not related to scientific merit. The 2003 follow-on meeting in Pasadena explicitly addressed issues with regard to other minority groups, as did the third meeting in 2009, in College Park, Maryland. By the time of the Inclusive Astronomy meeting in Nashville in 2015, the commonalities and differences among these groups were regularly discussed, and broadening participation to all talent had become the theme.
From the 1990s to the 2000s to the present day, the number of women earning PhDs in astronomy increased steadily, from less than 20% to more than 40%. Interestingly, the percentage of astronomers who are women remains roughly double the percentage of physicists who are women, even though the two fields require the same knowledge base and skill set. The percentages also vary enormously from one country to the next. Across western Europe, where standards of living and levels of education are quite similar, the percentage of women in astronomy still varies widely. These facts indicate the participation of women is a cultural issue rather than a reflection of ability or interest.
Today, our field is far more sophisticated in its understanding of these issues. Most colleagues are familiar with the concepts of unconscious bias, of excellence following from inclusion rather than being in tension with it, and of the need for active intervention to rebalance the playing field. Indeed, I would claim that Astronomy has been a leader among the sciences. And though Chemistry and Biology graduate a higher percentage of women PhDs, Astronomy doesn’t have the fall-off-the-cliff profile of those fields after the postdoc years. We should be proud of what we as a community have accomplished—while still aspiring to do better.
2015 Inclusive Astronomy conference photo, Nashville TN
Inclusive  Astronomy, Nashville, 2015.
As the demographics in our field have changed, the culture has changed. To give just a few examples, in the past decade the AAS held Town Halls on sexual harassment in astronomy and racism in astronomy. These plenary discussions could never have happened at AAS meetings decades earlier, when mention of gender or discrimination was dismissed as a social issue not central to the business of astronomy. 
I was particularly struck by Caitlin Casey’s Pierce Prize lecture at the January 2019 AAS meeting in Seattle, Washington, where she not only talked about her work on dust-obscured galaxies but also listed at the bottom of each slide some of the obstacles she encountered as a student and postdoc. Every single one of those was something I too had personally experienced decades earlier. But most importantly, her talk changed the conversation: at subsequent meetings, many talks—by men as well as women—have referenced career obstacles and hardships, in a way that builds community and inspires those coming up behind. This would not have happened had our field not changed in fundamental ways.
Young women still experience the same things that Caitlin Casey, I, and too many others have. But The Sky Is for Everyone. Change is slow and difficult. You have to keep pushing. 
At the January 2000 AAS meeting, I hosted a CSWA session centered around the 1999 MIT report on inequities among male and female faculty. One of the speakers, Prof. Claude Canizares (my former postdoctoral advisor), raised the question “When will we know we have succeeded?” His answer made perfect sense: when we reach parity. When a group attains representation in the inner sanctum in the same proportion as their presence in the talent pool, then you know the playing field is level. It’s a simple matter of justice that everyone have equal opportunity. But parity of experience between the dominant population and outsiders is still elusive. There is still work to be done. 
How do we get to parity? I look to history for some lessons. First, we have to play the long game. Persistence is essential. It can be tempting, when one has right on one’s side, to think that simply making one good argument should be enough. It should be, but it rarely is. One has to make an argument over and over, to reset norms, often incrementally, and to be vigilant against the inevitable backlash. It’s like driving some electric cars: when you take your foot off the accelerator, it feels like hitting the brakes in a conventional car—you can't rely on momentum to carry you forward.
Another important lesson of history is whether we should preach or teach. By “preaching” I mean saying what you believe, in the language you personally resonate with, while “teaching” is saying what you want your students to learn, in language they will hear. For changing minds—especially those that aren’t inclined to change—teaching works better than preaching, even if preaching may be more satisfying in the moment. Think about your audience, try to motivate them by addressing what they care about. For example, in the context of equity, there are many different reasons to favor increased participation in science but for some audiences, excellence might be the argument that moves the needle.
History teaches us that the time scales for social change are long—often longer than a human life span. Women in the U.S. didn’t get the vote until 1920, more than 70 years after the 1848 Seneca Falls convention. And even now, some conservatives want to walk back women’s right to vote. The Equal Rights Amendment, which explicitly prohibits discrimination on the basis of sex, was introduced in 1923, re-introduced in 1971 and approved by supermajorities in both houses of Congress, but ratified by only 35 of the required 38 states. It probably wouldn’t pass Congress today. 
Likewise, the battle to abolish slavery took centuries. Change is always harder and slower than it should be. 
The struggle for justice is a lifelong effort. What each of us does will help, and no one thing we do will solve the problem right away. As the abolitionist minister Theodore Parker first said in 1853, and Martin Luther King rephrased, “The arc of the moral universe is long, but it bends toward justice.”
Let me be very clear: I am not saying that it is okay that change takes so long. Rather, I am saying we need to be relentless, to make sure we complete that long arc toward justice.
My final suggestion: focus on a part of the problem you feel equipped to tackle. Maybe connect with one of the many organizations that work to get girls into science, engineering, computing, and mathematics. Work within your organization to ensure equity. Find a pressure point that works for you, keep your eye on the goal, and don’t stop until we get there."


Many thanks to Meg Urry for allowing us to publish these remarks, and for her presentation at the CSWA/1400 Degrees event January 5, 2026.


Thursday, January 15, 2026

How Women’s Invisible Labor Shaped Astronomy

By Kimberly Mitchell

For centuries, the work women did in astronomy went uncredited. Much of that work has been lost to the past, but some examples exist of women astronomers whose work was never fully recognized in their time or was attributed to men. 

  • Sophia Brahe (1556–1643) assisted her brother, Tycho Brahe, with detailed astronomical observations and record‑keeping that Tycho used in his publication, “De Nova Stella.” Her contributions were treated as assistant work, although the observations she helped produce were foundational for heliocentric orbital theory.

  • Maria Margarethe Winckelmann Kirch (1670–1720) collaborated closely with her husband, Gottfried Kirch, at the Berlin Academy, making observations and calculations and co‑discovering at least one comet in 1702. The comet discovery was formally credited to her husband, and after his death, Maria was denied his post because of her gender.

  • Caroline Herschel (1750–1848) catalogued nebulae and clusters, discovered multiple comets, and compiled an influential index of nebulae that underpinned her brother, William Herschel’s, work. Much of her cataloging and reduction work appeared under William’s name, with Caroline described as an assistant, despite being the first salaried woman astronomer and an accomplished observer in her own right.


Sophia Brahe in 1602.
Photo: Wikimedia Commons
We will never fully know the extent to which women contributed to astronomy in its earliest recorded days, but these women, whose efforts went mostly unrecognized or whose contributions were downplayed, were part of the early invisible labor that shaped astronomy.


Moving from the early modern era to the late modern era, women’s contributions to astronomy continued, with work still largely invisible or unacknowledged. In the 19th and 20th centuries, women filled the roles of human “computers.” The calculations they made pushed astronomy forward even as their contributions remained largely unknown. 

  • Annie Maunder (1868–1947) was one of the first “lady computers” at the Royal Observatory, Greenwich. Maunder worked alongside her husband, Edward, studying the prolonged period of time from 1645 to 1715 when little sunspot activity appeared on the Sun. Edward Maunder eventually published two papers on the phenomenon, but Annie’s name was excluded because she lacked a college degree. This work is now known as the Maunder Minimum, with Annie finally getting the credit she deserves.

  • Mary Adela Blagg (1858–1944) was a self‑taught mathematician who did meticulous work standardizing lunar nomenclature and analyzing lunar features. Her observations were crucial to lunar mapping. She also worked on variable stars. 

  • Women worked as “computers” at many major observatories (Harvard, Yerkes, Mount Wilson, etc.) They measured positions, spectra, and brightnesses from photographic plates to produce catalogs of stellar classification, variable‑star studies, and galactic structure. Their contributions are buried in annual reports and plate logs, remaining largely unknown.

  • Jocelyn Bell Burnell (b. 1943) identified the first radio pulsar in the data from a new radio telescope she helped build while still a graduate student. The 1974 Nobel Prize for this discovery went to her (male) supervisor and a senior colleague, with Bell Burnell’s contribution omitted completely. As Bell Burnell was graduate student, the omission was controversial, but her contribution to the discovery was well-documented.

  • Margaret Burbidge (1919–2020) co‑authored the landmark B²FH paper explaining how elements are formed in stars and was a leader in observational spectroscopy. While she is now well-known, she faced early exclusion from the use of some telescopes. 


Harvard Computers in March 1898. 
Photo credit: UAV 630.271 (E4116), olvwork432388. Harvard University Archives.
While women in astronomy today are now credited for their work, the invisible labor continues in various ways, ultimately affecting individual careers and the advancement of women in the field in the long run. 

Invisible labor continues to impact the lives and work of women astronomers. While it looks different today than simply excluding women from recognition for their work, it is still a significant problem that must be recognized and rectified to bring true parity to the field. 





Thursday, January 8, 2026

Crosspost: Picture an Astronomer: Best Practices for Retaining Talent in Astrophysics

Our crosspost today is from a newly released whitepaper edited by Ava Polzin and Katherine E. Whitaker about the challenges women in astronomy face and how these might be overcome.

Cover: Illustration of Vera Rubin, based on the 1948 picture of her at the Vassar College Observatory from the Carnegie Science Vera C. Rubin Photograph Collection. The background is one of the first light images from the NSF-DOE Vera C. Rubin Observatory released June 2025. It is the first major observatory to be named after a woman. All art by Julie Malewicz.

Summary:


Women are consistently underrepresented in astrophysics yet are simultaneously subject to disproportionate attrition at every career stage. This disparity between demonstrated efficacy in job performance and ultimate career outcome was the primary motivation for the Picture an Astronomer series, which included both targeted public outreach to increase representation of women in astrophysics and high-level, solution-oriented discussions among professional astronomers. 

In March 2025, more than 200 astronomers came together in a hybrid-format symposium focused on the state of the field for female scientists, combining scientific exchange with discussions of policies and practices to strengthen retention of talent in the field. This white paper is the result of those discussions, offering a wide range of recommendations developed in the context of gendered attrition in astrophysics but which ultimately support a healthier climate for all scientists alike.

Excerpt from the foreword by C. Megan Urry:


One particular conversation when I was a postdoc in the 1980s clarified both the ubiquity and inaccuracy of the upside-down notion that women had it easier than men. It started with the usual statement from a male colleague that, thanks to affirmative action, I would have no difficulty advancing in the field (a claim wildly contrary to the lack of encouragement I experienced to that point). I challenged him to substantiate that view. He launched into a story about a woman hired as faculty at a top university despite her complete lack of qualifications, and despite overwhelming competition from an outstanding young man for whom the job had actually been intended. But an interfering Dean had insisted that this woman be added to the short list and then insisted that she be hired. I might have believed this story—after all, such stories were commonplace—but when I asked who the woman was and what her research area was, the storyteller didn’t know any details. 

Wait, I said, you don’t know who she is or what she does but you are sure she was unqualified? “Everyone knows this is true,” he responded

As scientists, we know this isn’t how evidence and scientific analysis is supposed to work. Before coming to conclusions, we seek facts and are skeptical of broad claims— you don’t just accept some story because it aligns with your beliefs. Later, I happened to meet someone who had been on the actual search committee for that position. When I recounted the story to him, he—a person who was there, who participated in the deliberations and the decision to hire this woman—told me the story was flat out wrong. 

In fact, the woman had been on the short list from the get-go and was hired because she was the strongest candidate by far. According to this first-hand account, she blew the rest of them out of the water, including the young man who was a supposed shoo-in. This jolted me into a new awareness of the realities of my profession. I began to see that women2 were judged differently than men—indeed, much more harshly—which the social science literature confirms. We were less likely to be seen as academic stars, more likely to be criticized or overlooked. At the Space Telescope Science Institute (STScI), created in 1981, the tenure-track staff included only one woman (Neta Bahcall) among the first 60 people hired. This was despite the fact that women received 10-20% of the PhDs in astronomy in the 1980s. I was the third woman hired onto the tenure track, after Anne Kinney. 

She and I started asking, “Why so few?”

Read the whitepaper from the "Picture an Astronomer Symposium" at arXiv: Picture an Astronomer: Best Practices for Retaining Talent in Astrophysics.

Thursday, August 28, 2025

Women in Astronomy: Space for Students Part 11: Hurum Maksora Tohfa

By: Libby Fenstermacher

In our popular Career Profile series, the AAS Committee on the Status of Women in Astronomy has compiled dozens of interviews highlighting the diversity of career trajectories available to astronomers, planetary scientists, and those in related fields. In a twist on this series, we video-interviewed students in astronomy and astrophysics to highlight their personal and academic career paths. A written interview option was also provided. The purpose of this series is three-fold. It aims not only to give a voice and exposure to those who are up and coming in the field but also to give feedback to the Astronomical community at large about the experiences of students who identify as women. The hope is that these interviews will not only share advice and lessons learned but will shed light on how to encourage and inspire more women, from various backgrounds and skill sets, to follow space trajectories, and reach towards the stars. 
Unlike past editions of this series, the following interview will only be available as a written interview.
Meet Hurum Maksora Tohfa, a third-year Astrophysics PhD student at the University of Washington. When this interview was conducted, she was just about to enter her second year. Alongside her PhD, Hurum is also a Graduate Assistant for Professor Matt McQuinn, where she works on projects that explore the effects of baryon streaming velocity on structure formation in the early universe.
Hurum Maksora Tohfa
Her path into astrophysics began with a love for mathematics that grew into a passion for physics and cosmology. With a BA in physics and mathematics with a concentration in scientific computing, she has worked on projects ranging from fine structure constant variation to simulations of early star formation, developing a strong foundation in computational cosmology.
What excites Hurum most about astronomy is its ability to address fundamental questions about the universe while reminding us of our place within it. She acknowledges the challenges of complex equations and overwhelming data, but sees them as opportunities to sharpen her computational skills and contribute to the field. For aspiring astrophysicists, her advice is to take things one day at a time, be patient with yourself, and never hesitate to ask for help.
What is your background?
I got my BA(Hons.) in physics and mathematics with a concentration in scientific computing. I am currently a second year PhD student at the University of Washington. I have been involved in various research projects that span cosmology, high-energy physics, and computational methods.
What inspired you to choose a path in astronomy/astrophysics?
My interest in mathematics eventually led me to physics. While exploring different areas of physics, I found my passion for computational cosmology while working with Professor Daniel Grin on fine structure constant variation. I like how it lies at the intersection of many fundamental questions related to both particle physics and the origin of our universe and can address them in a novel and concrete way.  
What are your aspirations?
My aspirations are to pursue a PhD in computational cosmology, where I aim to expand upon my previous work by applying my computational skills to test and develop numerical tools to test or create alternative cosmological theories. After completing my PhD, I hope to continue my research in academia and share my knowledge with the next generation of physicists.
What about astronomy excites you?
What excites me about astronomy is its ability to address fundamental questions about the universe by intersecting multiple disciplines like particle physics, mathematics, and data analysis. On a deeper level, contemplating our insignificance on the vast cosmic scale humbles me and inspires me to make a positive difference in the tiny part of the cosmos I inhabit.
What about astronomy is challenging for you and what have you done to overcome these challenges?
One of the significant challenges in astronomy, particularly in computational cosmology, is dealing with analytically unsolvable dynamic equations and complex numerical evaluations. Many of the equations governing cosmic phenomena cannot be solved analytically due to their complexity, requiring sophisticated numerical methods and high-performance computing to approximate solutions. Additionally, as detectors and telescopes become more sensitive, we are entering an era where next-generation telescopes will produce an overwhelming amount of data. Managing this "big data" to extract meaningful insights poses another substantial challenge. To overcome these challenges, I have focused on developing a strong computational skillset to tackle the analytical and data-intensive challenges in the field.
What do you think is a common misperception about astronomers or astronomy as a discipline or/and educational path?
A common misperception about astronomers and the field of astronomy is that it's solely about stargazing or observing celestial objects through telescopes. Many people imagine astronomers spending their nights looking at the sky and cataloging stars, planets, and galaxies. While observation is a fundamental part of astronomy, the discipline is much more diverse and technologically advanced than this romanticized view suggests.
In reality, modern astronomy and astrophysics are highly interdisciplinary fields that integrate physics, mathematics, computer science, and data analysis. For example, as a theorist, I spend most of my time developing advanced statistical methods, running N-body simulations, and analyzing computational models to formulate theories that explain observational data. My work involves complex algorithms and high-performance computing, which are far removed from the traditional image of an astronomer gazing through a telescope.
Another misperception is that the educational path in astronomy is narrow and limits career opportunities to academia or observatories. In truth, the skill set developed—such as critical thinking, quantitative analysis, and expertise in machine learning and data science—is highly transferable to various industries, including technology, finance, and healthcare.
What are you currently working on? (Projects, Classes, Goals?)
I’m currently working on two research projects: The first project investigates the impact of baryon-dark matter streaming velocities on the formation of the first stars in the universe. In the early universe, radiation was coupled to baryons but not to dark matter, leading to a relative velocity difference between them after recombination—this phenomenon is known as streaming velocity. Previous studies show some contradicting results on the mass of dark matter halos that were affected by streaming. I'm using N-body simulations to explore how this streaming velocity impacted star formation in the early universe, which can help us better understand observations from telescopes like the James Webb Space Telescope.
I am also working on the effect of observational systematics on a relatively new summary statistics called scattering transform for Lyman alpha forest data. Along with my research, I am continuing to take graduate level courses. 
What are your near-future plans?
I am hoping to finish my current project and take the qualifier exam by the end of my second year.
What advice would you give to someone considering a trajectory similar to yours? 
If you're considering a trajectory similar to mine, my advice is to take things one day at a time and be patient with yourself. Research can be challenging and often complex, so don't hesitate to ask for help when you encounter obstacles. It's likely that someone else has already spent months resolving the same issues you're facing, and seeking their guidance can save you a lot of time and frustration. Additionally, focus on developing a strong computational background.
Did/Do you receive any mentorship and if so, what is the most important guidance you have garnered along your journey?
Yes, I have been fortunate to receive mentorship from several esteemed professors, including Professor Matt McQuinn, Professor Simeon Bird, and Professor Daniel Grin. Their passion for astronomy and cosmology has been incredibly inspiring and has significantly influenced my decision to continue in this field. From each of them, I have learned invaluable lessons about cosmology, research methodologies, and the importance of critical thinking. The most important guidance I have garnered along my journey is the value of perseverance—being consistent in tackling challenging problems and not giving up.
What if any changes would you like to see for women in astronomy? 
I would like to see a more inclusive and supportive environment for women in astronomy. This includes increasing representation of women at all levels—from students and researchers to faculty and leadership positions. Mentorship programs and networking opportunities specifically designed for women can provide valuable support and foster career development. Additionally, promoting work-life balance through flexible scheduling and acknowledging the challenges that disproportionately affect women can help retain brilliant individuals in the field.
Favorite movie/Tv show?
Bojack Horseman




Thursday, August 7, 2025

The First Woman Astronomer Royal

by Kimberly Mitchell


On July 30, 2025, Michele Dougherty became the first woman Astronomer Royal in the United Kingdom. It is only the latest achievement in Dougherty’s long astronomical career, and one she never envisioned as a child.

Dougherty grew up in South Africa and became interested in astronomy and the stars through her father. He built a telescope when she was ten and showed Dougherty Jupiter’s moons and Saturn. Though Dougherty enjoyed the experience, she didn’t pursue science in secondary school. Still, her enjoyment of science and math stuck with her, strong support for the idea that building science capital in children by the age of 11 is impactful for their involvement in science and math later in life. 

When Dougherty arrived at the University of Natal, she decided to study mathematics and science despite not having a strong secondary school background in these subjects. Dougherty says of this experience, “It was like learning a new language,” but that didn’t stop her from ultimately succeeding. She got her Bachelor’s degree in mathematics before moving to physics for her graduate degree. She graduated in 1988, with her PhD work focused on wave-particle interactions in dispersive and anisotropic media. 

Michele Dougherty addressing the Royal Astronomical Society in 2015.

Photo: TowardsTheLight - Own work, CC BY-SA 4.0, Wikimedia Commons.

Dougherty completed a fellowship in mathematics in Germany before moving to London, where she joined Imperial College in 1991. Dougherty is a professor of space physics, and she was head of the Department of Physics at Imperial from 2018 until 2024. Dougherty has been the principal investigator for major planetary space missions, notably the magnetometer instrument on NASA’s Cassini spacecraft, which orbited Saturn, and the European Space Agency's JUICE mission, which will explore Jupiter’s icy moons starting in 2031. She led the work that discovered an atmosphere containing water and hydrocarbons around Saturn’s moon Enceladus, a critical finding in the search for extraterrestrial life.

The position of Astronomer Royal dates back to 1675 and is officially appointed by the British monarch. King Charles II appointed the first Astronomer Royal, John Flamsteed. Flamsteed’s main role was observing and cataloging stars to create navigational maps. Flamsteed and several of his successors are credited with establishing a tradition of extensive research and precise astronomical observations.

The position has changed somewhat, in that the Astronomer Royal now holds the title along with their current roles. Michele Dougherty is currently the Executive Chair of the Science and Technology Facilities Council (STFC) and the President-elect of the Institute of Physics, as well as a professor at Imperial College. As the Astronomer Royal, she will serve as an ambassador for astronomy, space, and STEM in the UK and beyond, and an advisor to King Charles III in any matters of astronomy. 

John Flamsteed, first Astronomer Royal.

Painting by Thomas Gibson, public domain, via Wikimedia Commons.

Dougherty is aware of the importance of becoming the first woman Astronomer Royal, as she understands how younger women and girls can draw on her achievements to inspire their own. “I think when young children in particular see someone that looks like them doing a job they think they would never get an opportunity to do, it changes their mindset a little," she told BBC News,

Dougherty joins another female astronomer, Catherine Heymans, who is the first female Astronomer Royal for Scotland. Heymans took on the role in 2021, and now both positions are held by women for the first time in history. 

In her recent BBC interview, Dougherty said: 

“For the last 350 years, the title of Astronomer Royal has been held by a white male astronomer, and that kind of reflected what the astronomical community has looked like for the last few centuries. But things are changing," she said.


"Science is becoming more diverse, which it needs to be if we want to answer these big questions, and I'm absolutely delighted now that the two Astronomers Royal across the UK are female, reflecting the fact that science is for everyone."