A world measured in thought: from clay tokens to code.
Organized into four great eras, each marking a transformation in how humanity conceived number, space, and truth.
A1. Ancient Foundations (c. 2000 BCE – 300 BCE)
1 |
c. 2000 BCE |
Babylonian Place Value System |
The Sumerians and Babylonians devised a base-60 positional system using cuneiform wedges - enabling large-scale accounting, geometry, and astronomy. |
2 |
c. 1800 BCE |
Egyptian Unit Fractions |
Egyptian scribes expressed fractions as sums of unit fractions (1/n), revealing algorithmic reasoning in practical computation. |
3 |
c. 1600 BCE |
Rhind Mathematical Papyrus |
A compilation of 84 problems in arithmetic, geometry, and algebra - documenting early mathematical pedagogy. |
4 |
c. 1000 BCE |
Chinese Counting Rods |
Movable rods on counting boards introduced positional notation and negative numbers, anticipating the decimal system. |
5 |
c. 600 BCE |
Greek Geometric Proofs |
Thales and Pythagoras transformed measurement into deduction - founding mathematics as a logical discipline. |
6 |
c. 500 BCE |
Pythagorean Theorem Formalized |
The relation a² + b² = c² unified number and form, inaugurating mathematical universality. |
7 |
c. 450 BCE |
Zeno’s Paradoxes |
Logical dilemmas of motion and infinity spurred inquiry into continuity and limit. |
8 |
c. 400 BCE |
Indian Sulba Sutras |
Geometric constructions for ritual altars, revealing sophisticated approximations of π and √2. |
9 |
c. 370 BCE |
Plato’s Academy and Ideal Forms |
Geometry elevated to philosophy - mathematics as pathway to eternal truths. |
10 |
c. 300 BCE |
Euclid’s Elements |
Axiomatic geometry systematized; proof became the standard of certainty for all rational thought. |
A3. Early Modern Revolution (1200 – 1800 CE)
21 |
14th cent. |
Oxford Calculators’ Kinematics |
Quantified velocity and acceleration; seeds of analytic mechanics. |
22 |
1543 CE |
Copernican Cosmology |
Mathematics re-centered the universe; geometry became cosmic law. |
23 |
1637 CE |
Descartes’ Analytic Geometry |
Unified algebra and geometry; curves became equations. |
24 |
1654 CE |
Pascal–Fermat Correspondence |
Probability theory born from games of chance. |
25 |
1665 CE |
Newton–Leibniz Calculus |
Independent creation of differential and integral calculus. |
26 |
1687 CE |
Newton’s Principia |
Mathematical physics achieves universality; calculus validated in nature. |
27 |
1713 CE |
Bernoulli’s Ars Conjectandi |
Foundations of combinatorics and expectation. |
28 |
1748 CE |
d’Alembert’s Wave Equation |
Differential equations formalize motion and vibration. |
29 |
1755 CE |
Euler’s Introductio |
Function concept, infinite series, notation; analysis unified. |
30 |
1799 CE |
Gauss’ Fundamental Theorem of Algebra |
Every polynomial has a complex root; ℂ made complete. |
A4. Modern and Digital Age (1800 CE – 2000 CE)
31 |
1821 CE |
Cauchy’s Rigorous Limits |
Precision replaces intuition; calculus becomes analysis. |
32 |
1830 CE |
Galois Theory of Groups |
Symmetry structures unify algebraic solutions. |
33 |
1854 CE |
Boole’s Algebra of Logic |
Thought rendered algebraic; logic mechanized. |
34 |
1872 CE |
Dedekind’s Real Numbers |
Continuum constructed from rationals via cuts. |
35 |
1890 CE |
Cantor’s Set Theory |
Infinite hierarchies defined; mathematics re-founded. |
36 |
1931 CE |
Gödel’s Incompleteness Theorems |
Limits of formal proof exposed. |
37 |
1936 CE |
Turing’s Machine Model |
Computability formalized; algorithm meets mechanism. |
38 |
1948 CE |
Shannon’s Information Theory |
Communication and entropy quantified; bits as measures of knowledge. |
39 |
1976 CE |
Four-Color Theorem (Computer Proof) |
First theorem proved with computational aid; new epistemology of proof. |
40 |
2000 CE |
Millennium Prize Problems |
Seven unsolved questions define frontiers of 21st-century mathematics. |