Early tally marks
Notched bones and other tally systems show that people were recording quantities long before written numerals.
People / cultures: Prehistoric cultures
Travel from early counting and ancient civilizations through algebra, calculus, probability, statistics, computing and modern mathematics. Dates for the earliest developments are approximate because many ideas evolved gradually.
Notched bones and other tally systems show that people were recording quantities long before written numerals.
People / cultures: Prehistoric cultures
Mesopotamian and Egyptian administrations developed written numerals for trade, taxation, land and astronomy.
People / cultures: Sumerians, Ancient Egyptians
Babylonian scribes used a base-60 place-value system and sophisticated tables for multiplication, reciprocals and geometric problems.
People / cultures: Babylonian scribes
An Egyptian mathematical text preserves arithmetic, fractions, geometry and practical problem-solving methods.
People / cultures: Ahmes, Ancient Egyptians
Greek thinkers increasingly organized mathematics around definitions, proofs and logical deduction.
People / cultures: Thales, Pythagorean tradition
Euclid compiled a systematic treatment of geometry and number theory that influenced mathematics education for more than two millennia.
People / cultures: Euclid
Archimedes used ingenious geometric arguments to study areas, volumes, centers of gravity and approximations of pi.
People / cultures: Archimedes
Maya mathematics used a vigesimal system, positional notation and a true zero symbol in calendrical calculations.
People / cultures: Maya mathematicians and calendar specialists
Aryabhata presented algorithms, trigonometric ideas and astronomical calculations in the Aryabhatiya.
People / cultures: Aryabhata
Brahmagupta stated systematic arithmetic rules involving zero, debts and fortunes, helping formalize signed-number computation.
People / cultures: Brahmagupta
Al-Khwarizmi’s work on solving equations helped establish algebra as a distinct mathematical subject; his name also gave rise to the word algorithm.
People / cultures: Al-Khwarizmi
Leonardo of Pisa promoted Hindu-Arabic numerals and practical arithmetic in medieval Europe.
People / cultures: Fibonacci
Descartes and Fermat connected algebraic equations with geometric curves, creating the foundation of analytic geometry.
People / cultures: René Descartes, Pierre de Fermat
Correspondence about games of chance helped Pascal and Fermat develop foundational ideas in mathematical probability.
People / cultures: Blaise Pascal, Pierre de Fermat
Newton and Leibniz independently developed methods of differentiation and integration, with Leibniz’s notation becoming especially influential.
People / cultures: Isaac Newton, Gottfried Wilhelm Leibniz
Euler made major contributions across analysis, number theory, mechanics and graph theory while popularizing notation still used today.
People / cultures: Leonhard Euler
Gauss’s Disquisitiones Arithmeticae organized and advanced number theory, including congruences and quadratic forms.
People / cultures: Carl Friedrich Gauss
Mathematicians showed that internally consistent geometries could be built by changing Euclid’s parallel postulate.
People / cultures: Nikolai Lobachevsky, János Bolyai, Carl Friedrich Gauss
Cantor’s work on sets and different sizes of infinity reshaped the foundations and language of modern mathematics.
People / cultures: Georg Cantor
Gödel’s incompleteness theorems and Turing’s model of computation revealed deep limits and possibilities of formal reasoning.
People / cultures: Kurt Gödel, Alan Turing
Programmable electronic computers made large numerical calculations, simulations and algorithmic experimentation practical at unprecedented scale.
People / cultures: John von Neumann, Grace Hopper, many computing pioneers
Symbolic computation, computer-assisted proofs, large-scale numerical models and modern machine learning have become important mathematical tools.
People / cultures: Global mathematical and computing community
Organized geometry and number theory into a proof-based system in the Elements.
Advanced geometry, mechanics and methods for areas and volumes.
Developed influential methods in arithmetic, trigonometry and mathematical astronomy.
Gave systematic arithmetic rules involving zero and negative quantities.
Helped establish algebra and systematic algorithmic calculation.
Promoted Hindu-Arabic numerals and practical arithmetic in Europe.
Linked algebra and geometry through coordinate methods.
Co-developed calculus and applied mathematics to mechanics and astronomy.
Co-developed calculus and introduced notation that remains standard.
Made foundational contributions across analysis, number theory, mechanics and graph theory.
Transformed number theory, geometry, statistics, astronomy and mathematical physics.
Founded set theory and developed a rigorous theory of infinite cardinalities.
Reshaped abstract algebra and connected symmetries with conservation laws in physics.
Produced extraordinary discoveries in number theory, series and partitions.
Formalized computation and helped establish theoretical computer science.
CalculatorWiser also includes dedicated ancient-math collections covering Maya, Babylonian, Egyptian, Greek, Roman, Chinese, Indian, Aztec and Inca traditions.