Tuesday, March 28, 2023

Mathematics is essentially about ideas… it’s a metaphor for our own existence: Manil Suri




Maths professor and novelist on his new book on maths and what makes the subject fascinating yet misunderstood






How would you define mathematics? As a system of numbers, formulas and structures that is universally applied yet frequently dreaded? As a discipline that involves the use of pure reason? As a way of thinking, a way of life?

For Manil Suri, author of multiple literary novels and professor of mathematics at the University of Maryland, Baltimore County, “maths is essentially about ideas”. In his new book, The Big Bang of Numbers (published by Bloomsbury), Suri explains the role and relevance of maths by creating a universe entirely out of numbers. With some assistance from literary devices, plenty of relatable humour and a memorable cameo from the Pope (though he may not be aware of it!), Suri’s book is designed to make people fall in love with maths.

My Kolkata caught up with Suri to understand more about his book, compare the teaching of maths in India and the US, unpack maths through beauty, discovery and more. Edited excerpts from a Zoom session connecting a sunny morning in Silver Spring, Maryland with a drizzly evening in Kolkata follow.

My Kolkata: Tell us about your memories of growing up in Mumbai and what led you to switch from physics to maths in university.

Manil Suri: I grew up in Mumbai in the 1960s and ’70s, as the only child in a middle-class family, living in a single room of an apartment and getting on easily with our neighbours even though we were from different backgrounds and communities. My parents put me in a very good school called Campion, after which I went to Jai Hind College to major in physics. My switch to maths came in 1977 when I was at the Indian Institute of Science. I had a very colourful professor there, Dr Huzurbazar, who’d keep telling me that I should switch to maths. His classes were amazing and that’s what finally convinced me. Dr. Huzurbazar was also the one who encouraged me later to go to the US (and study at Carnegie Mellon University).
I was amazed to see the second-hand books in Kolkata




Have you had a chance to spend any time in Kolkata? If yes, what appealed to you most about the city?

I have. My aunt used to live there and I’ve been to Kolkata twice. On my first visit in the ’80s, I found Kolkata to be a really bustling city, even more so than Mumbai at the time. After that, I returned to Kolkata about a decade ago for a book festival and was amazed to see the second-hand books on offer. That, for me, was a sign of the intellectual life of the city.
The Indian system of teaching maths has more recall value than the one in the US

Since you have seen both education systems closely, what would you say are the biggest differences in how maths is taught in India and the US, especially in schools?

My experience in India was from very long ago, so I suspect things have changed a lot since. But what surprised me the most once I went to the US was how you were expected to ask questions in class. In India, you mostly listened in silence to the teacher and took notes assiduously, unless you were specifically asked to speak in class. There was a lot of emphasis on focusing on certain problems and then preparing on exams. On the other hand, homework and regular grades mattered a lot in the US. Both approaches have their pros and cons. I feel the one in the US allows you to get your hands dirty, to discover more by yourself. But when it comes to recall value, I feel the Indian system, with its constant drills, does a better job.

 

Suri feels that people are becoming more acceptable to seeing the common ground between literature and mathsImage courtesy Larry Cole

As someone who has written literary novels but is a professor of mathematics in his day job, would you say there are similar characteristics that govern literature and maths? Or are they, as the stereotype goes, poles apart?

At a basic level, they’re very different, for the mental muscles involved are very different, more so when you’re doing maths, as opposed to writing about it. The challenge is to bring these two together, which is what I’ve been trying to do for the past 15 years or so. I take classes where I teach mathematicians how to write essays, while also shedding light on the usefulness of maths for non-mathematicians. It’s a constant struggle to reconcile the two cultures, but I’m optimistic that in spite of being conditioned to stay in different and seemingly mutually exclusive fields for decades, people’s attitudes are slowly changing.
The majority of people found it interesting and said that it opened their eyes

Your op-ed in The New York Times, “How to Fall in Love with Maths” (published in 2013), is the inspiration as well as the fountainhead for your book The Big Bang of Numbers. What sort of a dialogue were you trying to create with your op-ed and what sort of feedback did you receive?

Engaging with artists and writers made me realise that people were interested in listening to me talk about maths. I developed a talk on infinity, which a lot of non-mathematicians found very interesting. All your life, you keep hearing that maths is all about calculations, while in essence, maths is all about ideas. That was the main motivation behind writing the op-ed. The reaction was more than I could’ve imagined. Some of the responses weren’t amazing. People were like: “This guy likes maths, good for him, please don’t bother us.” But the majority of the people found it interesting and said that it opened their eyes.
I went back to the drawing board for the third time



Suri first thought of a book on maths in 2008Image courtesy Larry Cole

After the success of your op-ed, what took you so long to write a book about maths?

I first started thinking about writing a book on maths for the general public in 2008. I was going to call it The M Word. I wrote about 200 pages, only for my editor to call it ‘charming’, which meant that she wasn’t going to publish it. When my op-ed came out in 2013, I decided to go back to that book. But I had also published a novel in 2013 (The City of Devi), which took up a lot of my time. Then, I wanted to write a novel on maths, called The Godfather of Numbers. Characters were supposed to be numbers and maths was to be presented in a very different way in it. But once again, my editor told me that this would be tough to sell, so it didn’t get published. The Big Bang of Numbers happened when I went back to the drawing board for the third time. Even though it’s non-fiction and it’s easier for me to explain ideas without being illusive, it retains certain elements of fiction, such as a story about infinity and numbers being imagined as characters.

You write in the introduction of your book that maths is essentially about ideas. Can you pin down a couple of these ideas?

Sure. The first idea is about numbers. When you look at them carefully, numbers are just abstractions. They are tools, a kind of an invention, which enable you to talk about quantity. Numbers themselves are mathematical entities, they’re not just for counting. The next idea will take us all the way to calculus. A long time ago, Archimedes was the first one to calculate the volume of a sphere. He conceived of the sphere as infinite thin slices stacked on top of each other. By using this idea, he was able to calculate the volume of the sphere. This idea forms one of the basic ideas of calculus, where you split something into several parts and calculate its volume, apart from other sorts of calculations, too. Even though calculus students may learn a lot of formulas, it’s the ideas that are more important.
Seven different types of nothingness



Suri distinguishes between nothingness and emptiness in maths

One of the fascinating observations you make early on in your book is the distinction between nothingness and emptiness and how that applies to maths. Could you explain that briefly?

In the book, I talk about creation ex nihilo, meaning “creation out of nothing”. In maths, you can create numbers almost through nothing. Nothing is called an empty set and from there you can create zero and its successors. When people usually think of nothing, they think of an empty space. Like an empty box. But even an empty box occupies space, so it’s not exactly nothing. So, nothing isn’t the same as emptiness. There’s a mathematician called Richard Kuhn who has a paper where he shows the seven different types of nothingness. In maths, we’re essentially using one of the different kinds of nothings and proceeding from there.
I find symmetry more attractive; the golden ratio remains hazy for me



Leonardo da Vinci’s Mona Lisa is often regarded to be a great example of the golden ratio in artTT Archives

How does maths relate to beauty? And if we are talking about mathematical beauty, which of the two is more important: symmetry or the golden ratio (in mathematics, two quantities are in the golden ratio if their ratio is the same as the ratio of their sum to the larger of the two quantities; the value of the golden ratio is approximately 1.618)?

The golden ratio was popularised by Luca Pacioli, an Italian mathematician and friend of Leonardo da Vinci, who himself was interested in the golden ratio and drew 60 diagrams for Pacioli’s book on the subject. Through the ages, people have felt that the golden ratio is very pleasing to look at, as in the case of the Mona Lisa, which is believed to adhere to it. There has been extensive research on whether we inherently find the golden ratio attractive as part of facial features, but so far the research is inconclusive. Alternatively, at the most basic level, humans and mostly all animals like bilateral symmetry, probably because it’s an evolutionary indication of good health and well-being. There are other kinds of symmetries too, such as squares being folded many times over. George David Birkhoff, an American mathematician, has shown that the more the symmetry of an object, the more its beauty. Personally, I find symmetry more attractive; the golden ratio remains hazy for me.

You use a number of compelling metaphors in your book to better explain the role of maths. My favourite was about crocheting and parabolic space. What was the one you enjoyed writing about the most?

For me, it’s the crocheting one, too. I had contacted someone in Australia with a website called Spin Cushions (now Shelley Husband Crochet), where she teaches people how to crochet a perfect, flat circle, to help me with some images of crocheting. She obliged and the pictures feature in the book. In the process, she was fascinated to see the connection with maths. It was great for me to be able to talk about different types of geometry using these metaphors, and also to talk about three-dimensions and how 3-D space can be curved, through the ruffling and cupping involved with crocheting.
For ordinary people, geometry is more relevant than algebra



Geometry and algebra have very different practical applications, explains SuriTT Archives

A question that most kids in middle school have pondered: which of algebra and geometry matters more in life and to the universe at large?

Geometry is essential in that we’re always looking at objects. It plays a big part in our intuitive interaction with the universe. But I’m not sure how much of a cognitive connection there is between intuitive geometry and the kind we learn in middle school. In some sense, there’s a connection, as in congruence. Algebra, however, is more about language and expressing ideas in terms of variables and formulas. For an ordinary person, algebra wouldn’t come up as much. You can probably go through your entire life without having to solve a single quadratic equation. But you can’t really go through life without knowing what a circle or triangle is.
If you lose humans, there’s no perfect triangle or perfect circle or perfect sphere in the universe



Srinivasa Ramanujan believed that mathematical formulas were a divine revelationTT Archives

Do you believe that maths is something we create or is it something we discover? And how does this tie in with the conception of maths as its own religion, as something trying to explain existence?

Maths as a discipline is often connected to religion. Leopold Kronecker, a German mathematician, said: “God gave us the whole numbers, everything else is the work of man.” Dr Huzurbazar, whom I spoke of earlier, went a step further: “I don’t need God, I can create the integers and whole numbers myself!” But then you take someone like Srinivasa Ramanujan, who used to believe that there was a goddess who brought all his mathematical insights to him. He saw formulas as an expression of divinity. Even Plato used to think that every mathematical truth is in some different realm, completely different to ours. Occasionally, the clouds part, you get a glimpse of something and that’s how you make mathematical discoveries. This is why, for many people, maths is a religion. Other people feel we create maths as a way to solve problems. They say that if you lose humans, there’s no such thing as a perfect triangle or a perfect circle or a perfect sphere in the universe. It’s all a product of the human mind. For me, this question can’t be answered, because it’s in the nature of maths to have both qualities, of creation and discovery. In this way, maths parallels life. Maths is a great metaphor for our own existence. Do we exist for a purpose, has someone created us? Or is it by chance? If we can’t decide about ourselves, we can’t decide about maths either.

Now that you have written your first book on maths, can we expect more on the subject? Or will it be back to the literary novels for the time being?

Actually, it’s neither, since my next book is going to be a memoir. When I came to the US, I started writing to my parents regularly, about three times a week. Over the years, I wrote some two to three thousand letters, all of which have been diligently collected by my mother. I feel I don’t want to let such a great resource go to waste, so I want to write a memoir based on these letters.

Lastly, what are your other hobbies and interests apart from maths and literature? How do you zone out?

I love movies and food. My father (R.L. Suri) was a music director in Bollywood, so I’ve been exposed to films all my life. I recently watched Tar, which I found interesting, but the movie that I’ve liked best in the last few months has been Gehraiyaan. As for food, I had catered for a year sometime ago and I still love to combine Indian food with other cuisines and experiment whenever I get the chance.

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Erdős Number Project spotlights collaboration in mathematics research



Instead of six degrees of Kevin Bacon, think Paul Erdős.



One of the 20th century’s most influential minds, the Hungarian mathematician earned his stripes by posing and solving complex problems in number theory and founding the field of discrete mathematics, widely acknowledged as fundamental to the development of computer science and artificial intelligence.

Erdős’ prolific career took him around the world as he collaborated with more than 500 mathematicians, paving the way for the computing revolution and modern search engines. His collaborations were so far-reaching that they gave rise to another phenomenon: the “Erdős number” is the number of steps needed to connect a research paper’s author to Paul Erdős.

An author's Erdős number is 1 if they have co-authored a paper with Erdős, 2 if they have co-authored a paper with someone who has co-authored a paper with Erdős, and so on. Erdős, himself, has an Erdős number of 0.

Jerrold Grossman, OU professor emeritus of mathematics, created the Erdős Number Project as a source of information for research mathematicians and others interested in the phenomenon of collaboration in mathematics research. He maintains the project’s website, noting that Erdős numbers have been a part of the folklore of mathematicians around the world for many years.

Using data from the American Mathematical Society, Dr. Grossman found that approximately 80 percent of mathematicians have an Erdős number, ranging from 1 to 13, with the average being about 5. Currently, the website lists 11,514 people with an Erdős number less than or equal to 2, including Fields Medalists and Nobel Prize winners.




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Mathematician wins Abel prize for solving equations with geometry Luis Caffarelli has been awarded the most prestigious prize in mathematics for his work on nonlinear partial differential equations, which have many applications in the real world








Luis Caffarelli has won the 2023 Abel prize, unofficially called the Nobel prize for mathematics, for his work on a class of equations that describe many real-world physical systems, from melting ice to jet engines.

Caffarelli was having breakfast with his wife when he found out the news. “The breakfast was better all of a sudden,” he says. “My wife was happy, I was happy — it was an emotional moment.”

Based at the University of Texas at Austin, Caffarelli started work on partial differential equations (PDEs) in the late 1970s and has contributed to hundreds of papers since. He is known for making connections between seemingly distant mathematical concepts, such as how a theory describing the smallest possible areas that surfaces can occupy can be used to describe PDEs in extreme cases.

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Math Enthusiasts Club: adding fun to the math equation



From exploring complex equations to solving puzzles and problems together, the Math Enthusiasts Club members are immersed in a world of numbers and patterns.

With regular meetings every Tuesday, the club welcomes all students engaged in math. The students teach each other math problems and concepts they may not have known before or want to expand their knowledge on.

“They examine unique math contest questions and discuss tricks and tips they can apply to problems they’ll see in the future,” said Andrew Ramroth, the math teacher who runs the club.








One such math competition may be the American Math Competition.

However, the Math Enthusiasts Club is very different from tutoring. Tutors are best for students looking for help with a current math class. In contrast, this club challenges students beyond the high school curriculum to expand their math skill knowledge.

“When you’re in a club of like-minded folk, being around other passionate people is exciting. They inspire each other and challenge each other to improve their knowledge and skills,” Ramroth said.

However, when teaching math at such a high level, the inspiration students once felt can be replaced by disinterest. Teachers may struggle to explain complicated concepts, and students may have trouble understanding them. This can lead to students feeling unmotivated to learn math, causing them to leave the club.



To counteract the difficult aspect of learning math, the club uses different teaching methods than typical math classes. Instead of the traditional curriculum, the club uses games and activities to make learning more engaging and interesting.


“We played a game called the Prisoners Dilemma. By playing out the simulation instead of explaining it, we could better understand and teach the concept,” said Roan Arendtsz, president of the Math Enthusiasts Club.

As president, Arendtsz has many duties, such as managing the meetings and creating curriculums. Arendtsz also has to research mathematical topics or activities that he thinks will gather interest from the club members.

Another crucial member of the club is the vice president. The vice president of the Math Enthusiast Club is Andrew Boldi, whose job is to work with the president on things such as the curriculum.




“The president and I have strived to emphasize the necessity for our curriculum to be interesting, applicable, and comprehensible to all of our members,” Boldi said.


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Elusive ‘Einstein’ Solves a Longstanding Math Problem



Last November, after a decade of failed attempts, David Smith, a self-described shape hobbyist of Bridlington in East Yorkshire, England, suspected that he might have finally solved an open problem in the mathematics of tiling: That is, he thought he might have discovered an “einstein.”

In less poetic terms, an einstein is an “aperiodic monotile,” a shape that tiles a plane, or an infinite two-dimensional flat surface, but only in a nonrepeating pattern. (The term “einstein” comes from the German “ein stein,” or “one stone” — more loosely, “one tile” or “one shape.”) Your typical wallpaper or tiled floor is part of an infinite pattern that repeats periodically; when shifted, or “translated,” the pattern can be exactly superimposed on itself. An aperiodic tiling displays no such “translational symmetry,” and mathematicians have long sought a single shape that could tile the plane in such a fashion. This is known as the einstein problem.


“I’m always messing about and experimenting with shapes,” said Mr. Smith, 64, who worked as a printing technician, among other jobs, and retired early. Although he enjoyed math in high school, he didn’t excel at it, he said. But he has long been “obsessively intrigued” by the einstein problem.

And now a new paper — by Mr. Smith and three co-authors with mathematical and computational expertise — proves Mr. Smith’s discovery true. The researchers called their einstein “the hat,” as it resembles a fedora. (Mr. Smith often sports a bandanna tied around his head.) The paper has not yet been peer reviewed.


“This appears to be a remarkable discovery!” Joshua Socolar, a physicist at Duke University who read an early copy of the paper provided by The New York Times, said in an email. “The most significant aspect for me is that the tiling does not clearly fall into any of the familiar classes of structures that we understand.”

“The mathematical result begs some interesting physics questions,” he added. “One could imagine encountering or fabricating a material with this type of internal structure.” Dr. Socolar and Joan Taylor, an independent researcher in Burnie, Tasmania, previously found a hexagonal monotile made of disconnected pieces, which according to some, stretched the rules. (They also found a connected 3-D version of the Socolar-Taylor tile.)







Initially, mathematical tiling pursuits were motivated by a broad question: Was there a set of shapes that could tile the plane only nonperiodically? In 1961, the mathematician Hao Wang conjectured that such sets were impossible, but his student Robert Berger soon proved the conjecture wrong. Dr. Berger discovered an aperiodic set of 20,426 tiles, and thereafter a set of 104.

Then the game became: How few tiles would do the trick? In the 1970s, Sir Roger Penrose, a mathematical physicist at University of Oxford who won the 2020 Nobel Prize in Physics for his research on black holes, got the number down to two.


Others have since hit upon shapes for two tiles. “I have a pair or two of my own,” said Chaim Goodman-Strauss, another of the paper’s authors, a professor at the University of Arkansas, who also holds the title of outreach mathematician at the National Museum of Mathematics in New York.


Image







He noted that black and white squares also can make weird nonperiodic patterns, in addition to the familiar, periodic checkerboard pattern. “It’s really pretty trivial to be able to make weird and interesting patterns,” he said. The magic of the two Penrose tiles is that they make only nonperiodic patterns — that’s all they can do.

“But then the Holy Grail was, could you do with one — one tile?” Dr. Goodman-Strauss said.


As recently as a few years ago, Sir Roger was in pursuit of an einstein, but he set that exploration aside. “I got the number down to two, and now we have it down to one!” he said of the hat. “It’s a tour de force. I see no reason to disbelieve it.”

The paper provided two proofs, both executed by Joseph Myers, a co-author and a software developer in Cambridge, England. One was a traditional proof, based on a previous method, plus custom code; another deployed a new technique, not computer assisted, devised by Dr. Myers.

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Tuesday, March 21, 2023

National Mathematics Day 2022: 10 facts about Srinivasa Ramanujan's life & work





National Mathematics Day 2022: 10 facts about Srinivasa Ramanujan's life & work













December 22 is celebrated as National Mathematics Day in India. It is the birth anniversary of Mathematician Srinivasa Ramanujan.


National Mathematics Day is observed on December 22 every year. This date marks the birth anniversary of legendary mathematician Srinivasa Ramanujan. In 2012, then Prime Minister Manmohan Singh declared December 22 as National Mathematics Day to honor the life and achievements of Ramanujan.

Hee are 10 points on life and work of the great mathematician:Srinivasa Ramanujan was born on December 22, 1887, in Tamil Nadu’s Erode to a Brahmin Iyengar family. He had developed a liking for mathematics at a very young age, mastering trigonometry at 12 and was eligible for a scholarship at the Government Arts College in Kumbakonam.
He studied at the Government College in Kumbakonam in 1903. Due to his dislike for non-mathematical subjects, he failed exams there. He had enrolled in Madras’ Pachaiyappa College at the age of 14.
In 1912, Ramanujan started working as a clerk in the Madras Port Trust. There, his mathematical genius was recognised by some of his colleagues and one of them referred him to Professor GH Hardy of Trinity College, Cambridge University. He met Hardy in 1913, after which he went to Trinity College.
In 1916, Ramanujan received his Bachelor of Science (BSc) degree. He went on to publish several papers on his subject with Hardy’s help. The two even collaborated on several joint projects.
Ramanujan was elected to the London Mathematical Society in 1917. Next year, he was elected to the prestigious Royal Society for his research on Elliptic Functions and theory of numbers. He was also the first Indian to be elected a Fellow of the Trinity College.
Despite not receiving any formal training in pure maths, Ramanujan made impactful contribution to the discipline in his short life. His areas of work include infinite series, continued fractions, number theory and mathematical analysis.
He also made notable contributions like the hypergeometric series, the Riemann series, the elliptic integrals, the theory of divergent series, and the functional equations of the zeta function. He is said to have discovered his own theorems and independently compiled 3,900 results.
In 1919, Ramanujan returned to India. A year later, on April 26, he breathed his last owing to deteriorating health. He was just 32 years old. His biography ‘The Man Who Knew Infinity’ by Robert Kanigel depicts his life and journey to fame.
A film of the same name was released in 2015 in which British-Indian actor Dev Patel played Ramanujan. The film shed light on Ramanujan’s childhood in India, his time in Britain, and his journey to becoming the great mathematician.
An anecdote from his biography shows Ramanujan's brilliance. In this, GH Hardy said: I remember once going to see him when he was ill at Putney. I had ridden in taxi cab number 1729 and remarked that the number seemed to me rather a dull one, and that I hoped it was not an unfavourable omen. "No," he replied, "it is a very interesting number; it is the smallest number expressible as the sum of two cubes in two different ways." Thus, 1729 became the Hardy-Ramanujan number – definitely not the greatest contribution of Ramanujan, but perhaps the easiest one to remember.

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Math as art





Most people use math to do everyday things, like balance their budgets, design workouts at the gym or build bridges. But for many mathematicians, math’s beauty outweighs its practical uses. For those who work in pure mathematics, it is seen as a form of art. The fields of number theory, knot theory and group theory each contain unexplored worlds of possibilities. For professor emeritus Jerry Johnson, math’s beauty is its main draw.

“Almost any mathematics that a person does has some potential for use at some point, even though you may not have any idea of what it’s going to be,” Johnson said. “People like me do mathematics just for the pure joy of it.”

“If you can imagine yourself as an explorer trekking to the South Pole for the first time, being excited about what you’re going to find there, it’s like that."

Srinivasa Ramanujan, a famous mathematician from India, was a number theorist whose work, though he would never know it, would be relevant to the mathematics of how black holes form. But Ramanujan wasn’t doing the math to learn about black holes. He did math for the sake of doing math, like many mathematicians in the College of Science, including Johnson.

“A lot of the mathematics that we do isn’t applied mathematics, it’s for its own sake,” Johnson said. “It’s almost like philosophy. It’s not necessarily applicable to anything, it’s just beautiful and creative and neat and you enjoy doing it.”

Mathematician G. H. Hardy, who brought Ramanujan to Trinity College in Cambridge from India, was “absolutely opposed to any application of mathematics,” Johnson said. Hardy was a number theorist as well. “He thought math was just pure beauty and creativity and it would appall him to think there were any applications.” Ironically, internet encryption relies on theorems from number theory. Without those theorems, online purchases wouldn’t be possible. “We always joked that if Hardy were alive today, he’d just be cringing at the idea of his beautiful number theory being used for internet transactions,” Johnson said.

“The main motivator is just to explore these forms of beauty in the abstract,” math professor Stanislav Jabuka said.

Associate professor of pure mathematics Ed Keppelmann agrees.

“Solving math problems became a keystone in my life,” Keppelmann said. “We try to show there’s a lot more to math than routine worksheets.” Keppelmann is part of the Nevada Mathematics Project, which aims to improve mathematic and scientific education of children in Nevada.

Keppelmann hopes to inspire some sense of awe in his math students, whether they are in elementary school or college. Math hides in art. The reason the National Geographic and Twitter logos are appealing is because they follow the rules of the Golden Ratio. Poetry is written in iambic pentameter, which gives a nice cadence to the poem. Math hides in nature’s fractals like river deltas or the veins in a leaf.

As technology improves and brings quantum computing closer to reality, Keppelmann notes that computers have become more and more integral in pure mathematics for proving theorems.

“We hypothesize that something works a certain way. We have computers do the calculations,” Keppelmann said. But he points out that there are some things computers can’t do, like form an idea that leads to a hypothesis. “The computers don’t think like that.” It takes a mind to formulate an idea out of thin air, to find the math in nature or the laws of physics or a pattern.

Math shows up in philosophy, too. One notable example Keppelmann gave was Gödel’s famous theorem which states that in any system where a set of truths is identified, there will always be some truths that exist but cannot be proven.

Johnson said that once you do find an answer to a math problem, it typically leads to even more questions. “It’s like science in that way.”

Math is unique among the sciences in that its theorems can be proven. In other scientific disciplines, a hypothesis cannot be proven but can be strongly supported. Math has rules that must be followed. And those proven theorems that mathematicians come up with, that can take centuries to solve, have been there the whole time.

“The math was there, waiting for someone to need it,” Keppelmann said. Waiting for a mind to pull the idea out of thin air.

“If you can imagine yourself as an explorer trekking to the South Pole for the first time, being excited about what you’re going to find there, it’s like that,” Jabuka said. “Some of these spaces, no one has studied before. You get to look at them and say, ‘Oh, look at this wonderful property that I discovered that we didn’t know this space could have.’ That still happens.”

Johnson differs from Hardy in that he acknowledges the practicality of numbers.

“There are applications,” Johnson said. “There are several faculty members in the department that are applied mathematicians. Their interest is in mathematics that is applicable to some real-world thing. I can see both sides of it.”

One of those applied mathematicians is associate math professor Paul Hurtado, who uses statistics and other processes to analyze models of ecology. He said the beauty of applied math becomes apparent when he’s developing models, and sometimes the beautiful parts are in what he’s missing.




“Sometimes it’s very illuminating not because you discover this wonderful, beautiful new thing, but you discover this void of knowledge nobody else has recognized as being important, and that gives you something to fill in,” Hurtado said. He also mentions that art is largely benefitted by creativity, but that creativity isn’t limited to art.




“In the same way that once you know how to carve or paint, once you get the math basics under your belt, then you can do creative things with them,” Hurtado said.




Math is often found in art, but many mathematicians feel the math itself is art, that the formulas are elegant and the graphs are beautiful.




“You find these problems to work on and they become fascinating,” Johnson said. “You want to solve the problems for their own sake and so you can share it with your colleagues.”

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Friday, March 10, 2023

ICSE Class 10 Maths Paper Analysis 2023: Exam Review, Question Paper, Difficulty Level & More










ICSE Class 10 Maths Paper Analysis 2023: ICSE Maths Board exams for the 2022-23 session were conducted today from 11 AM to 1.30 PM. Check the reaction of students, and exam paper review by students and subject experts and also download the question paper in PDF.


ICSE Class 10 Maths Exam Paper Analysis 2023: ICSE board conducted the Maths exam today, on Friday, March 11th from 11 AM to 1.30 PM. The exam got over just a while ago and here are the instant students' reactions after the exam. Also, check the review of the ICSE Class 10 Maths exam question paper by the subject experts.
ICSE Class 10 Maths Exam 2023 Key Highlights



Board

Council For The Indian School Certificate Examinations


Official website

Cisce.org


Class

10


Exam

ICSE


Subject

Maths



Date

March 10, 2023


Time

11 AM to 1.30 PM


Difficulty level

Moderate

ICSE Class 10 Maths Paper Review 2023

The ICSE Class 10 Maths exam was moderate, according to the students. There were some tricky and lengthy questions that made the overall paper a bit challenging. On the contrary, according to the subject experts, the paper was set at a moderate level to cater to the capacities of all types of students, neither being very difficult nor very easy. Students who practiced diligently and solved the specimen papers fared much better in the exam than others.
Type of Questions asked in ICSE Maths Board Exam 2023The ICSE Class 10 Maths exam 2023 carried 80 marks.
Extra 15 minutes was given to go through the question paper before the exam.
Time given to write was 2.5 hours.The paper had two sections: A & B, of 40 marks each.
All questions were compulsory in section A and any four questions had to be attempted in section B.
ICSE Class 10 Maths Question Paper 2023


ICSE Class 10 Maths Question Paper 2023 Download PDF

ICSE Class 10 Maths Answer Key 2023

You can refer to the authentic ICSE Class 10 Mathematics Answer Key for the 2023 Examination here
ICSE Class 10 Maths Paper Answer Key 2023 and Question Paper Download PDF
ICSE Class 10 Result Date 2023

ICSE Class 10 board exam results will be declared (tentatively) in May 2023.


RELATED STORIES

You will be able to check your ICSE Class 10 Results by clicking on the link below:

ICSE Class 10 Results.


Important resources for ICSE Class 10 Board Exam 2023 Preparation


ICSE Class 10 Syllabus PDF (All subjects)


ICSE Class 10 Specimen Paper and Marking Scheme PDF 2023


ICSE Class 10th Date Sheet 2023: Complete exam date sheet and guideline

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Thursday, March 9, 2023

Infectious disease modeller wins prestigious mathematics prize







Dr Anne Cori, from the MRC Centre for Global Infectious Disease Analysis and the Jameel Institute Imperial College London, has been named as one of the winners of this year’s Adams Prize, and the sixth woman to win the prize in its almost 175-year history.

The Prize is awarded annually by the University of Cambridge to UK-based researchers under the age of 40, carrying out first class international research in the Mathematical Sciences.

Former winners includes theoretical physicist Professor Stephen Hawking (1966), and the 2023 prize is awarded for achievements in the field of Mathematical and Statistical Epidemiology, a first since it was first awarded in 1850.

This year, the Prize is shared between Dr Cori and Professor Adam Kucharski, from the London School of Hygiene & Tropical Medicine, for their work modelling the spread of infectious disease outbreaks; from SARS-CoV-2 and influenza, to Ebola and HIV.


“I’m very happy to share the prize with Professor Adam Kucharski, whose research and communication on mathematical modelling of infectious diseases is outstanding.

"This joint prize is also testament of the excellence of both Imperial College London and LSHTM in infectious disease epidemiology. I don’t think either of us could have pursued research of the same quality without the stimulating research environment that both institutions offer.”

Dr Cori’s research at Imperial focuses on developing methods and tools that can be used in real time, to track a broad range of pathogens. Her work has helped to inform on a range of infectious disease epidemics, including COVID-19, Ebola, and HIV, enabling researchers to detect changes in transmission patterns, and predict possible outbreak trajectories under a range of control measures.


Among the tools she has developed is the software package EpiEstim, which enables users to estimate the transmissibility of a pathogen in real time during an outbreak.

Dr Cori was also a core member of the Imperial College COVID-19 Response Team, which produced more than 50 reports whose mathematical modelling and work with governments around the world helped inform initial responses to the COVID-19 pandemic.

Dr Cori added: “As we mark International Women’s Day this week, it’s important to note that only five women before me have won this prize*. For 151 years, the prize was only ever awarded to men. Since 2002 (the first year a woman won the prize), fewer than one in five awardees have been women.


"I take this opportunity to encourage all girls and women to engage in and study science and mathematics, and to highlight the collective responsibility we have in ensuring access to education and scientific careers for all, irrespective of gender but also ethnicity and other characteristics that often form the basis of discrimination.”

The Adams Prize is named after the mathematician John Couch Adams and was endowed by members of St John’s College at Cambridge. It commemorates Adams’s role in the discovery of the planet Neptune, through calculation of the discrepancies in the orbit of Uranus.

The prize includes approximately £30,000 in funding, part of which will be dedicated to supporting the winners’ research.

Previous winners from Imperial College London include Professor Claudia de Rham, from the Department of Physics, and Professor Gustav Holzegel, from the Department of Mathematics, for their work on “The gravitational rainbow beyond Einstein gravity”, and Dr Sheehan Olver for his work on computational mathematics (previous Oxford University), now at Imperial’s Department of Mathematics.



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Tuesday, March 7, 2023

Mathemalchemy: Art and Math Converge in New Show at 808 Gallery



The question behind the new exhibition on view at the 808 Gallery through March 4 isn’t how math influences art.

If you can picture the tessellated ceiling of an antique mosque, a meticulously counterbalanced chttp://lassical sculpture, or Leonardo Da Vinci’s Vitruvian Man, then you’re already somewhat familiar with the concept.

The question is how art influences math.

Mathemalchemy is the brainchild of 24 people from across North America, all existing “somewhere on this spectrum from mathematician to artist,” according to collaborator Li-Mei Lim, a research professor of number theory at the College of Arts & Sciences.

The sum total of their efforts is a sprawling, panoramic exploration of mathematical concepts using various media, including fiber arts, ceramics, wood- and metalwork, origami, 3D-printed material, and more. Unrepentantly geeky, and earnest to a fault, Mathemalchemy’s ultimate goal is “to show people that math is all around them.”Li-Mei Lim, a research professor of mathematics and statistics at CAS, explains the “Zeno’s Paradox” section of Mathemalchemy to visitors at the installation’s opening reception on January 20.

“As I worked on this, I found myself asking, how do I take something that I think is really exciting and make it more engaging for other people? How do I present it in a way that other people will understand?” Lim says.

The answer becomes obvious as you move through the exhibition. In an area designated as “the garden,” ceramic squirrels search for prime numbers, while three-dimensional polyhedra (in this case, origami flowers) grow around them. In another area, Zeno’s Paradoxes (philosophical problems that state that a moving object on a course may never reach its destination, as the course can be divided into infinite halfway points) are demonstrated by an ever-shrinking garden path, which snakes past a geometry-themed bakery, where a ceramic kitty named Arnold (after Russian mathematician Vladimir Arnold) holds a tray of pi-shaped cookies. Look east of Zeno’s path, toward the mountains, and get a lesson in vertical and horizontal integrals, look south toward the bay and see how the knitted starfish demonstrate five-point radial symmetry.

“We were trying to be really intentional about not just including a Fibonacci spiral [the visual representation of a sequence of integers where each number is the sum of the previous two] and calling it ‘mathematical,’” Lim says. “We’re trying to take the math and make it meaningful to the story we’re trying to tell.”

The BU mathematician became involved in creating the show after seeing a presentation by founding members Dominique Ehrmann and Ingrid Daubechies at the 2020 Denver Joint Mathematics Meetings, the world’s largest mathematics gathering. There, Ehrmann, a fiber artist from Canada, and Daubechies, a mathematics professor at Duke, presented their idea for an installation piece that would use art to “celebrat[e] the fun, beauty and creativity in mathematics.” The pair recruited 11 initial volunteers, including Lim, and just like that, the newly minted Mathemalchemists began their journey.

Lim says that Mathemalchemy uses two methods to demonstrate a principle. The first is to embed math into the creation of an object, as with the crocheted flowers found throughout the landscape. “One of the principles of hyperbolic surfaces is exponential growth, and crochet is a really good medium to show this,” she says. “If you crochet in circles, in each subsequent round you could double the number of stitches by putting two stitches into each stitch from the previous round. What you’ll end up with is this beautiful, ruffly object.”

The other method is to create a figurative representation of the concept, like having a team of squirrels sort prime and composite numbers.

Hidden details abound in Mathemalchemy. Every available surface is fair game for a mathematical reference—or two, or three. The mathematicians among the project’s collaborators span a variety of disciplines, and according to Lim, there’s no way that a single person could catch every single allusion—hidden or otherwise—that’s been jam-packed into the installation. Lim credits Dominique Ehrmann, a fiber artist and a founding Mathemalchemist, with teaching her the fundamentals of quilting. The two collaborated with Mary Williams, a mathematician and fellow fiber artist, to create a “Cryptography Quilt” for the show.

It might seem improbable that 24 artists, mathematicians, and mathematician-artists could come together across disciplines and time zones to create a numerical fantasy world; in fact, the show began with much more modest aspirations, involving fewer collaborators. When the pandemic struck, a long-term project and weekly collaborator meetings became more appealing, and as the pandemic continued, it became clear that no one was in a rush to finish Mathemalchemy.

“In the original timeline, it was going to be finished by the end of summer 2020,” Lim says. “Our first [in-person] meeting was supposed to be mid-March at Duke.” Forced to pivot, the core group began a regimen of Sunday Zoom sessions. Lim had initially offered to knit a few things for the project, but found herself dedicating more and more of her time to it.

“The pandemic really allowed me to be a lot more involved than I had been originally planning,” she says. “I always thought of myself as having this math side and then this hobby side, but I never seriously combined the two.”

Mathemalchemy owes its attention to detail to the collaborative spirit of its creators. Teams were developed around each of the installation’s 14 sections, tasked with constantly brainstorming, fabricating, editing, fabricating some more, editing some more, until the design process became “this constant iteration of, what more can we add in here?” Lim says. Each week, teams would present their progress to the group, and the process would begin anew.

“There are very few individual components,” Lim says. “Every piece is touched by so many people.”

It took a year and a half, roughly 400 hours of videoconferencing and 8,000 emails to finalize and install the exhibition, with Lim knitting, quilting, woodworking, doing origami, and overseeing the garden team.

She was also instrumental in bringing Mathemalchemy to BU. It debuted last January at the National Academy of Sciences in Washington, D.C., before heading to the Juniata College Museum of Art in Pennsylvania. The two dozen collaborators split into teams to design and fabricate Mathemalchemy’s different sections. They presented their progress to the whole group over weekly Zoom sessions.

Ty Furman, BU Arts Initiative managing director, secured funding to bring the show to BU and oversaw the logistics of shipping the installation. He worked with Lissa Cramer, BU Art Galleries director, who got the show mounted at the 808 Gallery in time for those attending the 2023 Boston JMM to get a sneak preview.

Lim sent Furman an email saying, please advise, she says, “and he emailed me right back. It was really fortuitous timing, because Ty had been trying to find some math- or science-related art to bring to BU [with] all this energy within the University for STEM right now around the opening of the new [Computing & Data Sciences] building.”

The most common reaction to Mathemalchemy has been “joy,” in Furman’s observation. “I am occasionally frustrated when I see things touted as the intersection of arts and fill-in-the-blanks, when it is clear the art is really just in service of the other discipline—a pretty design or infographic,” he says. “Mathemalchemy is so much more; it stands alone as a beautiful, fun exhibit and a wonderful entryway, or continuation, of someone’s exploration of mathematical concepts.”
While Fibonacci Spirals and fractals can be found throughout Mathemalchemy, its creators were determined to represent the intersection of math and art in ways that had never before been explored.

The installation has proven a popular draw: it has been the subject of high-school field trips and an object of fascination for top mathematicians and third graders alike. It will be the subject of a day-long Math, Art, & Education Symposium on February 24, and there will be a family day on February 25 and an artist talk with Ehrmann on March 3.

Mathemalchemy is on view at the 808 Gallery, 808 Commonwealth Ave., through March 4. The gallery is free and open to the public Tuesday through Saturday from 11 am to 5 pm. Find more information about the installation here.

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Cal Poly College of Science and Math Launches Astronomy Research Fellowship Through Donor Funding



Program Will Provide Faculty and Students with Dedicated Time and Resources for Learn by Doing Projects; First-year Research Will Concentrate on Identifying Ages of White Dwarf Stars



SAN LUIS OBISPO — A new Astronomy Faculty Research Fellowship in Cal Poly’s College of Science and Mathematics will expand opportunities for faculty and student collaborations on space science.

The program is supported by a generous donation from the Marrujo Foundation, established by Dan (Electrical Engineering, ’08) and Rosamaria Marrujo, who live in Roseville, Calif., near Sacramento.

The fellowship, which has been funded for three years, relieves faculty from teaching duties so they can work more closely with students on research.

Elizabeth Jeffery, a Cal Poly assistant professor of physics, will lead the research in the first year. The work begins this spring using scientific methodology to study the ages of stars. She’ll soon begin actively recruiting a research team of students, who will explore data related to locations and brightness of stars to better understand how long they’ve existed.

Jeffery’s research will focus on white dwarf stars, which represent the endpoint of a low mass star’s life. Near the end of its nuclear burning stage, this type of star expels most of its outer material, creating a planetary nebula. Only the hot core of the star remains. Like other stars, the sun will eventually become a white dwarf; experts say that could be in 5 billion years.

“We can learn a lot from white dwarfs and use them to measure star ages,” Jeffery said. “The analogy I like to give is if you’re out camping, the coals glow bright right after you take them out of the campfire because they’re hot, and then their brightness fades as they cool. As time passes, white dwarf stars also get cooler and, as a result, become fainter.”

A white dwarf star cools down at a predictable rate over perhaps a billion or so years; its brightness helps determine how old it is and how long it has been cooling.

Jeffery said these stars are like the fossil remnants of the galaxy — a valuable resource for a kind of astronomy archaeology or paleontology.

Jeffery and her students will use open-source data gathered by the satellite Gaia — a European Space Agency space observatory that launched in 2013— on a 12-year mission to create a precise three-dimensional map of more than a billion stars throughout the Milky Way galaxy and beyond, charting their motions, luminosity, temperature and composition.

“It’s a big project that will need to be accomplished in phases, and having a good chunk of time is valuable,” Jeffery said. “We’re thrilled to have this funding to be able to do this work.”

Additional Cal Poly astronomy faculty focusing on different research are expected to participate in the fellowship in the second and third years of the pilot partnership.

The Marrujo Foundation supports and works with educational institutions to further research in astronomy, astrophysics and cosmology to establish a world-leading fellowship ecosystem. The foundation’s efforts aim to ensure that institutional work challenges current understanding of space, creates new opportunities and makes a difference in people’s lives across the U.S. and around the globe.

“The intent here is to create an ecosystem that strengthens the core of what Cal Poly is doing,” said Dan Marrujo, president of Trusted Strategic Solutions, a Silicon Valley-based consulting and government relations firm. “We’ll use world-renowned resources, from space telescopes to satellite data collection. I want students to be excited about this opportunity to pursue their passion.”

Marrujo holds a master’s degree in materials engineering and a bachelor’s degree in electrical engineering (with a minor in physics) from Cal Poly. He is the former chief strategy officer and former director of the Office of Research and Technology Applications at the Defense Microelectronics Activity, delivering microelectronics solutions to the U.S. Department of Defense.

“Success is built on the people doing the work,” Marrujo said. “We’re just an enabler promoting the exciting Learn by Doing experiences for faculty and students that help propel careers.”

About Cal Poly College of Science and Mathematics
With about 2,800 undergraduate and roughly 280 graduate students, the college offers degrees in biology, chemistry, kinesiology and public health, physics, mathematics, statistics, marine science, microbiology and biochemistry. The college is also home to the university’s undergraduate liberal studies program for future teachers and Cal Poly’s post-baccalaureate School of Education. Embracing Cal Poly’s Learn by Doing mission, the college is an esteemed institution, noted for outstanding undergraduate research and significant student co-authorship participation on scientific journal publications.

Photo information:
Top: Photo 3: Physics student Kailei Gallup uses the Cal Poly Observatory as part of her senior project work.


Elizabeth Jeffery.jpeg: Cal Poly Assistant Professor of Physics Elizabeth Jeffery.






Observatory: Cal Poly students host a public viewing night at the on-campus observatory



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Communicator visits campus to explore math in everyday life



A mathematician and author of best-selling books that speak to math’s societal and technological roles in the world will visit campus March 13-17 as an A.D. White Professor at Large.


Jordan Ellenberg, the John D. MacArthur Professor of Mathematics at the University of Wisconsin, Madison, and author of “How Not to Be Wrong: The Power of Mathematical Thinking,” will offer two free events open to the public as part of his weeklong visit.

,
Jordan Ellenberg

“Ellenberg is a distinguished mathematician and a master of public communication,” said Tara Holm, professor of mathematics and chair of the department, in the College of Arts and Sciences (A&S). “His book talk will invite the public into mathematics that affects our daily lives. His Kieval Lecture (for undergraduate mathematics students) will be a delightful opportunity to learn more about the structure behind a popular card game and how mathematicians frame and solve problems.”

Ellenberg’s mathematical expertise focuses primarily on arithmetic algebraic geometry and number theory. He has earned numerous awards for his scholarly achievements, including the Simons Fellowship in Mathematics, a Guggenheim Fellowship and an Alfred P. Sloan Research Fellowship.

Along with several books, Ellenberg has authored many essays fostering a general appreciation of mathematics. His most recent book, “Shape,” is about the ubiquity of geometry in modern life.

Ellenberg’s first talk, “From Mosquitoes to ChatGPT – the Birth and Strange Life of the Random Walk,” will be geared toward a general audience and will take place from 5-6:30 p.m. March 15 in the Browsing Library of Willard Straight Hall.

“The idea of the random walk, now ever-present in applied math, was invented simultaneously and independently by multiple people in multiple countries for completely different purposes,” Ellenberg said, “from mosquito control to physics to finance to winning a theological argument.”

In mathematics, a random walk is a process where objects randomly move away from where they started. Ellenberg’s talk will include the story of the idea’s creation, as well as a discussion of ways that random walks (also called Markov processes) underlie current thinking about artificial intelligence.

Ellenberg’s Kieval Lecture will be at 4:30 p.m. March 16, in 253 Malott Hall. That talk, “Sets, Cards, Fields, Progressions, Ranks, Lines, and Triangles,” will center on the card game Set, which is played with a special 81-card deck.

“A standard ‘folklore question’ among players of this game is: What is the largest number of cards that can be on the table, which do not allow a legal play?” Ellenberg said. “I’ll explain how this question, which seems to be about cards, is actually a very deep one about geometry over a finite field, and what it has to do with many other popular questions in number theory.”

The Kieval lecture series is funded through a bequest from the late Harry S. Kieval ’36, a longtime professor of mathematics at Humboldt State University in Arcata, California.

Ellenberg will also meet with students at Hans Bethe House during the week for dinner and a discussion, “Making Words Count: Creative Writing and the Mathematical Imagination,” with faculty members Kathryn Mann, associate professor and Joyce A. Yelencsics ’65 & Frederick M. Rosevear ’64 Faculty Leadership Fellow in mathematics (A&S); Steven Strogatz, the Jacob Gould Schurman Professor of Applied Mathematics and Stephen H. Weiss Presidential Fellow (A&S); and Andrew Hicks, associate professor of music (A&S), Dale R. Corson House professor and dean of Hans Bethe House.


Kathy Hovis is a writer for the College of Arts and Sciences.

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Intervention based on science of reading and math boosts comprehension and word problem-solving skills New research from the University of ...