Origins and Early Discoveries
The Pythagorean theorem, often attributed to the Greek mathematician Pythagoras, was known long before his time. Evidence suggests that ancient Mesopotamian civilizations discovered the relationship around 1800 BCE [1:1]. This early understanding was not framed as a formal theorem but rather as practical knowledge used in various applications. Ancient Babylonians utilized this geometric principle for construction and surveying, demonstrating its foundational role in mathematics.
Influence of Egyptian Knowledge
The influence of Egyptian wisdom on Pythagoreanism is a topic of interest among historians. Some suggest that Pythagoras may have been inspired by Egyptian mathematical practices during his travels. The Corpus Hermeticum, a text from Alexandria blending Egyptian and Platonic ideas, reflects the deep interconnections between these cultures [5:2]. Although direct evidence linking Egyptian mathematics to the Pythagorean theorem is sparse, the exchange of knowledge through trade and scholarship likely contributed to its development.
Famous Proofs and Cultural Impact
The Pythagorean theorem has been proven in numerous ways throughout history, with one notable proof attributed to U.S. President Garfield [4:1]. This theorem's simplicity and elegance have made it a staple in mathematical education worldwide. Its cultural impact extends beyond mathematics, influencing art, architecture, and philosophy, as seen in Pythagoreanism's emphasis on harmony and proportion.
Mathematical Texts and Resources
For those interested in exploring the broader history of mathematics, several resources provide insights into how theorems like the Pythagorean theorem were developed. "Journey Through Genius" by William Dunham offers stories of famous mathematicians and their contributions [3:1]. Additionally, online timelines and encyclopedias can provide context and connections between different mathematical discoveries
[3:2].
Conclusion
The Pythagorean theorem is a testament to the enduring legacy of ancient mathematical thought. Its journey from Mesopotamia to Greece and its integration into various cultural philosophies highlight the interconnectedness of human knowledge across time and geography. Whether through ancient tablets or modern textbooks, the theorem continues to inspire curiosity and exploration in mathematics.
Wait until you find out that they made ghengis Khan asian instead of the Taratarian he was.
New rabbit hole!! Cheers person
Mesopotamia discovered it ~1800 BCE, not a theory, just you learning how americanized your worldviews are
For example the following is my solution (obviously I don't claim the method itself is my own! It's too incredibly basic to be new - just that I also used it to answer a test question) for establishing the integer part of any addition of square roots of integers. In this case it's for the integer part of the sum sqrt5+sqrt6+sqrt7, which using ruler and compass (or alternatively graph paper) is easy to establish at being at 7. With full accuracy of ruler and compass, the decimal part can also be established in detail. (scroll down for an example drawn with far better detail/accuracy; the method is the same)
It rests on the known method of constructing square roots - likely of ancient Greek origin (?) and the opening example in Descartes' book on geometry (https://kids.britannica.com/students/assembly/view/67611, https://americanhistory.si.edu/ru/collections/object/nmah_694637 etc). What I am asking is if you know any prominent historical examples where this way was used to calculate (or approximate) sums of many roots.
important note: the circles were approximately drawn - with compass they'd be accurate and so the full (integer+decimal) part of the sum would have optimal (visually checked) accuracy (in the case of this sum, be at around 7.33)
Here is an example with better accuracy of decimal:
I don't see why anyone, after the great Arab mathematicians, would want to do such a thing. You might want to look into this to understand: https://en.wikipedia.org/wiki/Constructible_number
Thank you! I am not arguing that it is a preferred method, I just want to find out when it was first used or at least specific cases of its use (I agree that those uses wouldn't likely be modern, but I don't mind). It's certainly a very easy/basic idea if one is aware (like I was) of the way to construct the square root geometrically. I will read the link for info :)
√5+√6+√7 = 7.33
Yes, that's what the note is about; can't have perfect accuracy (for int+decimal) with pixelated graph paper and approximately drawn circles. With ruler and compass it'd be exactly that. The integer part is 7.
Does anyone know any good books that go over history of mathematics? As in random stories of famous mathematicians/how certain theorems were created/any interesting math based stories that one could bring up in a classroom when introducing topics.
Not a book, but this is a very fancy website with a glorious timeline of Mathematicians.
Poor Galois, I move the mouse over his tile to see if it will show his whole name... nope he didn't live enough.
This may not be what you want, since it sounds like you're looking for entertainment rather than scholarship, but if you (or anyone) want a serious history text, A Concise History of Mathematics by Dirk Struik fits the bill. Note that Struik is a mathematician as well as a historian.
For interesting stories about mathematicians that you can use as background information while teaching math to students, your best bet is to look for actual math textbooks that include interesting stories. Of course the actual selection of textbooks will depend on the topic. For example, Primes of the form x^(2) + ny^(2) is a fountain of information about 18-th and 19-th century number theory, and Galois Theory by Ian Stewart really emphasizes the personal story of Galois.
For general bibliographical information you can always try the MacTutor archive.
Simon Singh's "Fermat's Last Theorem" isn't exactly a comprehensive history of math, but it does contain a few cool stories like this. Sophie Germain and Évariste Galois have some pretty exciting backstories if you like.
Just wanted to mention it. It was a great book. There's a lot of math history in it and how it did lead up to solving Fermat's last theorem.
I would recommend the Princton companion to mathematics. It's much more in the style of an encyclopedia, but contains a chapter giving a rough outline of the history of mathematics from the Greeks to modern times. It also has a chapter at the end of biographies of some influential mathematicians. The chapters in between arent exactly history but its certainly a worthwhile book to have on the shelf, and pretty reasonably priced considering its size and content.
Journey Through Genius by William Dunham introduces some great theorems of math starting from Hippocrates
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Einstein's formula is E=mc^2
√E^(2)-√m^(2)=c^(2)
Relativity is a right triangle confirmed
Is that the joke or did he actually do a proof?
E² = (pc) ² + (mc²)² is the full formula, it just simplifies to E = mc² when p = 0, hence the terms "rest mass" and "rest energy"
is the joke what i think it is?
the joke is literally just the fact garfield proved the pythagorean theorem
No way. Cats can do math?
What even is the meme
I think it’s “The first three are epochal talents and the 4th is President Garfield”.
Just silly imo
Conserve Kinetic energy
Did Pythagoras, Plato, and early Christians tap into Egyptian wisdom? This question explores how ancient Egypt shaped Pythagoreanism, Platonism, Neoplatonism, and the rise of Christianity. From Thoth’s esoteric knowledge to Alexandria’s syncretic hub, Egypt’s fingerprints are on these philosophies and faith, tied to Hermeticism and Gnosticism.
Around 530 BCE, Pythagoras founded a secretive brotherhood in Croton, structured like a mystery cult with mathematikoi (inner initiates) and akousmatikoi (outer followers). Its theology leaned toward unity:
Extent: Moderate Egyptian influence, shaping structure, reincarnation, and monotheistic leanings, but Orphic and Ionian roots also key.
Diogenes Laertius claims Plato studied in Egypt (c. 390 BCE) in Heliopolis or Sais, encountering priests’ mathematics and theology. Platonism (c. 427–347 BCE) centers on the Theory of Forms:
Extent: Subtle Egyptian influence, enhancing cosmology, soul theory, and monotheistic-like principles, but Greek roots (Socrates) dominate.
Neoplatonism, founded by Plotinus (204–270 CE) in Alexandria, blends Platonism with mysticism:
Extent: Strong Egyptian influence, via Hermeticism and Alexandria’s syncretism, shaped its monotheistic core.
Alexandria, under the Ptolemies, was a cultural hub where Egyptians, Greeks, and Southern Levantine monotheists shaped early Christianity, blending Egyptian spirituality with Hellenistic and Southern Levantine ideas.
Extent: Profound Egyptian influence, as Alexandria’s syncretism and expatriates like Mark and Origen made Egypt a Christian powerhouse, rooted in Thoth’s wisdom and Ma’at’s order.
Egyptian expatriates, including Copts and Levantine monotheists, spread ideas via Alexandria’s trade networks. Philo, Origen, and Coptic scribes bridged Egyptian spirituality to Platonism, Neoplatonism, and Christianity. Southern Levantine ties, possibly Hyksos-related, carried Akhenaten’s monotheistic legacy, influencing all four systems.
Egypt’s wisdom, from Thoth’s esoteric teachings to Alexandria’s melting pot, shaped Pythagoreanism’s proto-monotheism, Platonism’s henotheistic principles, Neoplatonism’s monotheistic core, and Christianity’s global faith. The Pythagorean brotherhood’s Egyptian-inspired structure fed Plato’s ideas, which Plotinus and early Christians like Mark wove into mystical and theological tapestries. Egypt’s legacy, carried by expatriates and syncretism, bridges ancient wisdom to modern thought.
Sources: Diogenes Laertius, Iamblichus’ Life of Pythagoras, Plato’s Timaeus, Plotinus’ Enneads, Corpus Hermeticum, Nag Hammadi Codices, Gospel of Mark.
Corpus Hermeticum Shows amazing ancient knowledge!
The Corpus Hermeticum, a 2nd–3rd century CE text from Alexandria, attributed to Hermes Trismegistus, blends Ancient Egyptian, Platonic, and Stoic ideas into a profound spiritual philosophy. Here’s a quick summary of its key wisdom!
Written in Alexandria, the Corpus reflects Egypt’s role as a Hellenistic hub. Egyptian priests likely shaped its ideas, spreading Hermeticism alongside Isis and Serapis cults. Greek critics like Isocrates mocked Egyptian practices, but the Corpus’ wisdom inspired Renaissance thinkers and mystics.
Corpus Hermeticum So far no names on original geniuses… Sumerian astronomical observations 60 seconds 60 minutes 360 days Summer/winter solstice 90 degrees Triangles 180 degrees Cuneiform tablets tells facts much older!
Man, I just can't stand ai posts like this.
it is high effort post, ai helped of course, otherwise this would take weeks to find out and weave together.
Sham Ennessim was believed by some to have first been celebrated by Egyptians during the Pharaonic era (ca. 2700 BC) and they kept celebrating it during the Ptolemaic times, the Roman times, medieval times, and up to the present day.
Sham El Nessim: A spring festival tied to the Nile’s renewal and agricultural cycles, Sham El Nessim featured communal feasts, egg-sharing, and celebrations of rebirth. In Coptic Christianity, it became Egypt’s Easter Monday, blending ancient spring festivities with Christian resurrection themes. This syncretism highlights Egypt’s lasting influence on religious calendars.
did you collapse the wave function of your new sacred geometry? i know a lot about newly discovered shapes. (and about jerkin it whoooooo). maybe we should talk on piers morgan at some point!
This comm reads like it was written mid-meditation on a floating rock 💀 I don’t know what dimension they’re in, but I’m lowkey curious now
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Grunkle Ford 2000 AD, as well.
I remember hearing somewhere that at a certain point in the history of mathematics, a certain mathematician came very close to discovering a branch of mathematics that would be very useful in advancing society to the point it was now. I might be misremembering, but I also recall hearing that if they didn't interrupt that process, our society would have been able to advance at a much quicker pace and starting at a much earlier point in history. Anyone know what branch of mathematics or what researchers were involved in this, or if I'm just not remembering properly and all of this isn't real?
a certain mathematician came very close to discovering a branch of mathematics that would be very useful in advancing society to the point it was now... if they didn't interrupt that process, our society would have been able to advance at a much quicker pace and starting at a much earlier point in history.
You're gonna have to narrow that down more. People claim that about a lot of mathematicians. It's one of those things that, honestly, I feel like doesn't really hold much weight in pretty much every case, as people tend to mythicize the few mathematicians they know and not look at things as a plethora of genius mathematicians working together. It's just that few names (rather arbitrarily) become the ones we recognize, while others become more obscure. For example, Leibniz, Cauchy, Tychonoff, Poincaré, etc. are not well-known by those that don't study pure math, while Newton, Euler, Gauss, etc. are. Even people like Kuratowski, Moore, Napier, Fréchet, Lacroix, al-Khwarizmi, Stone, etc. probably wouldn't be recognized by many mathematicians, and many more would not be able to explain the extensive work they put into shaping the math we have today.
Hell, OP's description could even have been a misremembering of this story involving Erdős:
After [Erdős'] mother's death in 1971 he started taking antidepressants and amphetamines, despite the concern of his friends, one of whom (Ron Graham) bet him $500 that he could not stop taking them for a month. Erdős won the bet, but complained that it impacted his performance: "You've showed me I'm not an addict. But I didn't get any work done. I'd get up in the morning and stare at a blank piece of paper. I'd have no ideas, just like an ordinary person. You've set mathematics back a month."
This sounds like a myth often attributed to Tesla and Edison. They were what we may now call electrical engineers, though, not mathematicians.
Possibly also a garbling of the lost books of Diophantus or Ramanujan's "lost notebook."
As an engineer with a healthy respect for him, he's both a physicist and engineer.
He theorized transmission of energy in never before heard of manners.
He understood electromagnetic phenomenon and radio on his own.
THEN he built machines to prove he was right.
Archimedes was killed by a Roman soldier, it is thought he would have eventually completed his development of calculus if he was not killed, but it is hard to say.
His final words are thought to be: “Please do not disturb my circles”
Is this the story you are referring to? It’s a pretty famous story in math history.
I find that pretty unlikely though considering the Greeks didn't even have the concept of a variable. I think really the method of exhaustion and understanding the basic notion of a limit probably was as far as he would have got
A lot of people have good guesses here, but the right answer for sure is archimedes and calculus.
Correct!
Sounds like Psychohistory and it was invented by Hari Seldon and Isaac Asimov! 😜
While it may sound rather droll or uninspiring to look at spiritual concepts in numerical terms, remember that Pythagoras was also a master initiate of the esoteric schools of his time. The numerical principles he taught symbolize divine principles or archetypes that can be tapped into during the mystical experience.
Thus, “the whole field of arithmetical speculation had to do with the internal growth of the person. It made possible the exploration of qualitative factors, not merely the assessment of quantities. Therefore, it was the foundation upon which must be built the most advanced type of” meditational practice.
The numerical principles depicted in the Tetractys represent mental or psychological archetypes. The world itself is conceived to exist as a projection of these archetypes: its various kingdoms being merely these archetypes clothing themselves in various garments of material form.
Archetypes pre-structure the design of all forms that come into existence within Space. Space is really Consciousness, and the world of form is really a “thought form” that exists within the Mind of this Consciousness. Archetypes represents the patterns of Mind by means of which Consciousness projects and builds its cosmic thought form.
In esoteric philosophy, Creation is understood to exist as the end-product of a divine process of meditation in which God “projects the world by visualization, or by the power of will and Yoga.” This projection takes place via the seven “builder gods” or “Elohim”, which in Mahayana Buddhism are termed as the Celestial Buddhas or Dhyani Buddhas (meditating Buddhas). The Tetractys is intended to depict this archetypal creation process in mandalic form. In its ten dots are captured the threefold nature of the Divine Self and the seven Rays or principles of Mind which are projected out from it at the onset of creation.
The idea is that the seven creator gods within the macrocosm move in the design of one great archetype. This archetype describes “the rhythm of consciousness moving through the world. This rhythm is the motion of Tao, symbolized in China by the undulations of the body of a cosmic dragon.”
By attuning themself to the cosmic rhythm of the Tao, the meditating mystic experiences an alignment in consciousness between their own inner psychology and the divine spiritual archetypes existing in Space. Through this process, the mystic “recapitulates the divine creation process” and "experiences the very mystery of creation.”
The disciple of the Pythagorean school, meditating upon the design of the Tetractys, stimulates its cosmic principles within himself and thus recapitulates within his own microcosmic consciousness the same process of creation as that which originally took place within the macrocosm or universe as a whole.
Through this method, “Pythagoras revealed a kind of yoga, a means of disciplining human consciousness by reference to the orderly procedures of number, which represent the systematic unfoldment of creative processes moving out from their own causes.”
Hall elaborates on the mystical disciplines that the Pythagoreans incorporated within their school: “the Pythagorean philosophy of number was held to be both scientific and intuitive. Once the disciple had been instructed in the principles of the teachings, he advanced by a process of personal discovery. New mathematical patterns and equations continuously presented themselves to his attention. These he interpreted according to his own unfolding insight.”
As we’ve discussed, the performance of mediation works through the stimulation of archetypes. Once awakened, these archetypes “come alive”. The challenge of meditation is simply to awaken them and bring them to life within ourselves.
Manly Hall describes this act of awakening divine powers within as one of “reminiscence”: “To Pythagoras, mathematics was a science built upon reminiscence. By this he meant that mathematical principles were not discovered, created, or invented by the mind, but had an eternal subsistence in the intelligible nature of all things. Reminiscence, therefore, is a recalling of that which is already known, usually by a process of association. One thing reminds us of another, leading to a refreshment of recollection. That which is recollected is drawn into the fore part of attention, where it becomes available again after being seemingly forgotten.”
By catalyzing this process of “reminscence” within its students, the Pythagoreans sought to “draw certain deep and hidden knowledge from within the individual and apply it to the deep and hidden mystery of the world.” Therefore, by practicing the philosophical disciples emphasized by the Esoteric School, by degrees, the wise man could perfect the grand concept of existence and establish his own proper place in the universal program.”
Full article: https://thewisdomtradition.substack.com/p/the-mandala-an-image-of-the-invisible-7b5
I love the tetractys. I use an image of it as my charging station on my altar. The Greeks thought it was sacred and Pythagoreans would swear by its name.
My own system aligns perfectly with it so I have to agree. I like that it can be as simple or as complex as you need it to be, very flexible depending on the situation. It’ll take some time to figure out all of the best uses for it, I’ve been using it as a map for ritual or meditation
That sounds very powerful. I’ve been looking at methods for occult meditation, so let me know what you come up with. I did do some preliminary stuff with it, but it was very haphazard. I do not recall why I stopped.
Hi, maths lovers!
I'm curious, were there any facts about the development of mathematics through the ages or tidbits from certain mathematician's biographies that piqued your interest or that you found funny or even weird?
I personally found fascinating that renaissance era mathematicians held maths duels where they exchanged problems and the one who managed to solve the most of them was considered a winner and often got some prestigious post as a result (while the other was publicly humiliated, naturally).
The ➗ symbol was invented for typewriters - it didn't exist before. I tell all my students (11-16 years old) that fact because it makes it SO MUCH EASIER to understand division, fractions, and the order of operations.
youd be surprised how many math theorems were written on the verge of someones death. i forgot which theorem this was for, but basically some guy got into a duel with his lover's husband so the night before the duel he just splurged all his mathematical knowledge onto a piece of paper and now its a proven theorem.
I've always heard remarks about Egyptian mathematicians knowing a lot about trigonometry before the Greeks learned about them, or about how Indian mathematicians knew about certain results in Calculus that would later be attributed to Liebniz.
With this idea in mind, does anyone have recommendations for books or places (websites) where one can learn about mathematical developments of non-European regions. I don't want to say something like "the true history" as that becomes a little aggressive.
I'd like to explore more in an effort to show my students that math is not a field that only sees old European people as mystical math gods when it comes to the things they might be learning in school.
I imagine some of these might just be local to their countries and only be in there language, but I'd still like to know.
Thank you!
A good starting point might be “Math Through the Ages: A Gentle History for Teachers and Others”. This was the book I read during my undergrad history of mathematics course, and it’s fairly comprehensive but shallow. There is a section dedicated to Indian mathematics and another dedicated to Arabic mathematics, but it’s mostly recounting the developments toward the modern age. I remember it being a fairly representative view of history, albeit shallow considering it’s an introductory book.
It does feature excerpts of primary sources and a multitude of good references to the primary and secondary sources which might interest you. There’s even representation of Native American mathematics.
Some links to the history of mathematics in Japan:
https://www.amazon.com/History-Japanese-Mathematics-David-Eugene/dp/1633918521
"Mathematics Across Cultures: The History of Non-Western Mathematics" by Ubiratan D'Ambrosio sounds like exactly what you're looking for. It focuses on math outside Europe and the US.
This might interest you
https://press.princeton.edu/books/paperback/9780691135267/the-crest-of-the-peacock
I find it very doubtful that Egyptian mathematicians knew a lot of trigonometry before the Greeks. The evidence just doesn't support that. Maybe you're thinking of Hellenized Egypt where indeed a lot of "Greek" mathematicians worked on trigonometry.
But to answer you question, take a look at the books by Van Brummelen, like heavenly mathematics or mathematics of the heaven and earth. He talks about how trigonometry and geometry developped over the centuries, and he goes rather deep in the accomplishments of "non-european mathematicians" such as Indians, Arabs and Persians. Also take a look at Kline's "Mathematical Thought", which also talks about non-Europeans a fair bit.
history of the Pythagorean theorem
Key Considerations on the History of the Pythagorean Theorem
Origin: The Pythagorean theorem is attributed to the ancient Greek mathematician Pythagoras (c. 570–495 BC), although evidence suggests that knowledge of the relationship between the sides of a right triangle existed in various ancient cultures, including Babylonian and Indian civilizations.
Babylonian Evidence: The earliest known records of the theorem date back to around 2000 BC in Babylon, where clay tablets (like the YBC 7289) show calculations that imply an understanding of the 3-4-5 triangle, which satisfies the theorem.
Indian Contributions: Ancient Indian mathematicians, such as those in the Sulba Sutras (circa 800–500 BC), also documented rules for constructing right triangles, indicating an understanding of the theorem long before Pythagoras.
Pythagorean School: Pythagoras founded a religious and philosophical school that emphasized mathematics and believed that numbers were the essence of all things. His followers, the Pythagoreans, contributed to the theorem's proof and its applications in various fields.
Proofs and Extensions: Over the centuries, numerous proofs of the theorem have been developed, with over 400 known proofs today, ranging from geometric to algebraic methods. Notable mathematicians like Euclid and later figures such as Bhaskara and Al-Khwarizmi expanded on its applications.
Modern Relevance: The Pythagorean theorem remains fundamental in mathematics, physics, engineering, and various fields, serving as a foundational principle in geometry.
Takeaway: The Pythagorean theorem is a timeless mathematical principle with a rich history that spans multiple cultures and centuries, showcasing the evolution of mathematical thought and its enduring significance in various disciplines.
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