This is a post in an ongoing series which features people, events, and organizations that demonstrate and/or support the importance of inclusivity and diversity in the mathematical sciences. I will share these posts with the students in courses I teach, and I encourage you readers to do the same. The series title may be considered a "play on words" with the method from combinatorics known as the "inclusion-exclusion principle".
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Emmy Noether
born March 23, 1882; Erlangen, Germany
died April 14, 1935; Bryn Mawr, PA, USA
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It was not at all common for females to study at university at this time in Germany. In fact, the university's administration had said that this would "overthrow all academic order" and, during Emmy's time, she was one of only two women out of almost 1000 students. [1] In fact, she was only allowed to audit courses, sitting in on lectures (if the professor even allowed this) without officially enrolling. Still, she gathered knowledge and passed the graduation exam in 1903 [2].
Thereafter, Emmy Noether was devoted to mathematics. She attended lectures by some of the most well-known mathematicians at the time (all men, of course) at the University of Göttingen in 1903, and then returned to Erlangen to work on a thesis, which she published in 1907. Fortunately, the rules for women were being changed, and she was allowed to complete this work and receive her degree, which was summa cum laude, mind you.
For the next 25 years, she worked and taught in universities in Germany and Russia. At first, she stayed at Erlangen, occasionally substituting for her father when he was ill. In 1915, she returned to Göttingen to teach, at the behest of world-famous mathematician David Hilbert, who intervened on Noether's behalf to ensure the sexist university policies could not prevent her from doing so. One faculty member protested: "What will our soldiers think when they return to the university and find that they are required to learn at the feet of a woman?" Hilbert's retort shows that his interest was in the mathematical prowess of the candidate and nothing else: "I do not see that the sex of the candidate is an argument against her admission as privatdozent. After all, we are a university, not a bath house." [3] It was at Göttingen that she produced her most famous work about symmetry and conservation laws. (You can read more about that work here in Science News [4].) And, although it sounds wonderful that Noether was provided this opportunity to teach, was able to apply for habilitation (something like tenure), and received a citation from the Prussian Minister for Science, Art, and Public Education, it is important to note her professorship position came with no salary!
Emmy Noether visited Moscow State University from 1929-1930 to teach and work with mathematicians there on their research in abstract algebra. Many of her colleagues, all of whom were well aware of her talent and passion for mathematics, were frustrated at the university systems and cultures that prevented her from receiving proper recognition and compensation for her work. While the wider world was rather discriminatory, at least we can say that her corner of the mathematical world recognized her as an outstanding individual, regardless of gender. Indeed, at the 1932 International Congress of Mathematicians, in Zurich, Switzerland, Noether delivered a plenary address. Furthermore, that same year, she shared the Ackermann–Teubner Memorial Award with Emil Artin, in recognition for their "advancement of mathematical knowledge". [5]
Unfortunately, the rise of Nazism and widespread anti-Semitism in Germany impacted the university system and led to the removal of Noether, a Jew, from her teaching position. The very same Prussian Ministry for Sciences, Art, and Public Education, from whom she had received a glowing citation earlier in her life, sent her a notice: "On the basis of paragraph 3 of the Civil Service Code of 7 April 1933, I hereby withdraw from you the right to teach at the University of Göttingen." [6] Luckily, scientific colleagues in the rest of the world were working to help scholars like Noether, and she found a position at Bryn Mawr, an all-female liberal arts college in southeastern Pennsylvania. While in the United States, she also visited and lectured at Princeton University and their Institute for Advanced Study.
Emmy Noether passed away somewhat suddenly in April 1935, at the age of 53. Doctors had found a pelvic tumor and an ovarian cyst during surgery. While on bed rest, she suffered a high fever and died. Doctors were not entirely sure what had happened, citing a possible infection as the cause of the fever and untimely death. Support from the mathematical and scientific community was swift: Noether's colleagues and other eminent scholars wrote their condolences and tributes, including Albert Einstein and Herman Weyl. Below is a quote from Einstein's letter published in the New York Times:
In the judgment of the most competent living mathematicians, Fräulein Noether was the most significant creative mathematical genius thus far produced since the higher education of women began. In the realm of algebra, in which the most gifted mathematicians have been busy for centuries, she discovered methods which have proved of enormous importance in the development of the present-day younger generation of mathematicians. [7]
Why do I write this now? Well, I think Nature put it best with their blog post last week [8]:
Celebrate the mathematics of Emmy Noether: An algebra pioneer who faced discrimination deserves wider recognition on the centenary of her namesake theorem.
From the article, because they summarize it all better than I could:
The results that Noether published 100 years ago were, for her, a rare foray into physics, in which she was not particularly interested. Albert Einstein had just developed his general theory of relativity, and was struggling to understand how energy fitted into his equations. [German mathematicians David] Hilbert and [Felix] Klein were working on it, too, and asked Noether for help.
That she did help is an understatement. Noether’s expertise in symmetry led her to discover that the symmetries of a physical system are inextricably linked to physical quantities that are conserved, such as energy. These ideas became known as Noether’s theorem (E. Noether Nachr. d. Ges. d. Wiss. zu Göttingen, Math.-phys. Kl. 1918, 235–257; 1918).
As well as answering a conundrum in general relativity, this theorem became a guiding principle for the discovery of new physical laws. For example, researchers soon realized that the conservation of net electric charge — which can neither be created nor destroyed — is intimately related to the rotational symmetry of a plane around a point. The impact was profound: those who created the standard model of particle physics, and the researchers who attempt to extend it, think in terms of Noether’s symmetries.All of this is to say that mentioning Emmy Noether now is timely. Her work 100 years ago was outstanding and groundbreaking, and scientists today still find it influential. Moreover, the struggles and discrimination she overcame throughout her life may serve as a lesson for our times: that someone can overcome those obstacles, but wouldn't our world be better off if they didn't have to?



