History of classical mechanics

The development of theories of motion and force, from ancient natural philosophy through Newtonian mechanics and later revisions such as analytical mechanics and relativity.

Aristotelian physics: A natural philosophy in which motion and change follow from the essential properties and purposes of bodies. Its account of natural and violent motion shaped European thought before mathematical mechanics.
Inertia: The tendency of a body to maintain its state of rest or uniform straight-line motion unless acted on by a net force. Galileo’s analysis of persistent motion challenged the older idea that motion needs continual maintenance.
Isaac Newton: An English mathematician and natural philosopher who formulated the laws of motion and universal gravitation. His synthesis established the framework that dominated classical mechanics for centuries.
Celestial mechanics: The application of gravitational mechanics to the motion of planets, moons, comets, and other astronomical bodies. Newtonian mechanics made celestial motion calculable within a single physical framework.
Impetus theory: A medieval account in which a moving body carries an impressed force that sustains its motion. It offered an alternative to Aristotle’s claim that continued motion requires a mover.
Galilean relativity: The principle that mechanical experiments have the same form in all frames moving at constant velocity relative to one another. It clarified which motions Newtonian mechanics treats as equivalent.
Christiaan Huygens: A Dutch mathematician and physicist who made foundational contributions to dynamics, pendulum clocks, and centrifugal force. His work on collisions and circular motion developed mechanics alongside Newton’s achievements.
Analytical mechanics: The reformulation of mechanics through principles such as least action and equations using generalized coordinates. Lagrangian and Hamiltonian methods broadened the theory beyond Newton’s original presentation.
Nicole Oresme: A fourteenth-century French philosopher who used graphical and mathematical reasoning to analyze changing qualities and motion. His work helped make quantitative descriptions of motion conceivable before modern mechanics.
Newton's laws of motion: Three principles relating a body's motion to applied forces, including inertia and the proportionality of force to change in momentum. They condensed earlier insights into a framework for predicting motion from forces.

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Gaspard-Gustave de CoriolisNarrower topic: Coriolis’s rotating-frame analysis belongs to the nineteenth-century refinement of mechanics.