Linked from

The 50 pages that link to Projectile motion, each with the reason it gives.

• Newton's laws of motionBroader topic: Its curved path follows from combining horizontal inertia with vertical gravitational acceleration.

• Classical mechanicsBroader topic: It is a simple case where forces yield a calculable trajectory.

• Newtonian mechanicsBroader topic: It is a direct application of Newton’s laws to everyday trajectories.

• Conic sectionRelated: In an ideal uniform gravitational field, a projectile follows a parabolic path.

• Newton's second lawBroader topic: Applying the law to gravity predicts the projectile's changing velocity and trajectory.

• BallisticsNarrower topic: It supplies the general mechanics used to describe a projectile’s flight.

• Quadratic equationRelated: Under constant gravity, height varies quadratically with time, making impact time a quadratic solution.

• KinematicsBroader topic: Separating horizontal and vertical motion applies kinematics to a familiar trajectory.

• Long jumpNarrower topic: It explains how takeoff speed and angle shape the jumper’s flight distance.

• Free fallCompared with: It combines free fall vertically with constant horizontal motion.

• DisplacementBroader topic: Horizontal and vertical displacements describe a projectile’s change in position.

• Free-body diagramBroader topic: A diagram isolates the projectile and shows gravity as its sole force in the ideal model.

• Ballistic trajectoryNarrower topic: Ballistic trajectory is the path traced by projectile motion.

• ParabolaRelated: With constant gravity and no drag, a projectile follows a parabolic trajectory.

• Javelin throwNarrower topic: The javelin’s release conditions and aerodynamic forces shape its flight.

• Muzzle velocityNarrower topic: Muzzle velocity is the initial condition for a projectile’s subsequent motion.

• Quadratic formulaRelated: Setting a height equation to zero can use the formula to find when a projectile reaches a chosen level.

• First-person shooterRelated: Rocket launchers and grenades use moving projectiles that players must lead or evade.

• Shot putNarrower topic: Release speed, angle, and height shape the shot’s flight and distance.

• Internal BallisticsRelated: Inside the bore, propellant pressure accelerates the projectile toward the muzzle.

• Evangelista TorricelliRelated: Torricelli’s efflux law treats fluid speed as equivalent to free-fall speed through a height.

• Newton's first lawBroader topic: Its horizontal component approximates constant velocity when air resistance is negligible.

• JumpingNarrower topic: Once airborne, a jumper's center of mass follows a projectile trajectory.

• TrebuchetRelated: It describes the projectile’s flight after the sling releases it.

• Jump shotNarrower topic: After release, the ball follows a trajectory shaped by speed, angle, and gravity.

• Quadratic functionRelated: Height as a function of time is quadratic in the idealized vertical-motion model.

• Theory of impetusRelated: Impetus theory sought to explain why a launched body keeps moving after release.

• Fosbury flopRelated: The athlete's airborne trajectory determines the available time and height for bar clearance.

• Parametric equationBroader topic: Time parameterizes horizontal and vertical position, producing a parabolic trajectory.

• ProjectileBroader topic: It describes how a projectile’s horizontal and vertical motion combine into a trajectory.

• Hammer throwRelated: After release, the hammer's flight depends chiefly on its launch speed, angle, and height.

• Spear-throwerRelated: It describes the dart’s flight after it leaves the spear-thrower.

• JavelinNarrower topic: A thrown javelin follows projectile motion, modified by aerodynamic forces.

• Jean BuridanRelated: Buridan used projectiles to challenge the claim that air must continuously move them.

• John PhiloponusRelated: Philoponus used projectiles to question Aristotle’s claim that surrounding air sustains continued motion.

• BlowgunNarrower topic: It describes the dart’s path after it leaves the tube.

• MangonelNarrower topic: Flight angle, speed, and gravity determine where a launched stone lands.

• Medicine ballRelated: A throw's trajectory reflects the force and release angle applied to the ball.

• Resultant forceRelated: Its changing velocity follows from the gravitational resultant force.

• Toy gunNarrower topic: A launched foam dart follows projectile motion, even though its mass and range are limited.

• Vector-valued functionRelated: Position as a function of time is naturally represented by a vector.

• Anita WłodarczykRelated: After release, the hammer's trajectory determines how far the throw travels.

• Instantaneous velocityBroader topic: Its horizontal and vertical velocity components evolve differently.

• Linear motionCompared with: Its horizontal component is linear even though the full path curves.

• Naïve physicsBroader topic: Predictions about launched objects expose misconceptions about curved trajectories and continuing force.

• TetherballCompared with: Unlike a free projectile, the ball’s path is constrained by its rope.

• Equations for a falling bodyBroader topic: Its vertical component follows the same equations as a falling body.

• Metre-stickRelated: A metre-stick can provide a length reference when measuring a projectile’s range.

• Newtonian dynamicsBroader topic: It applies Newtonian laws to a trajectory with a nearly constant gravitational force.

• Throwing knifeNarrower topic: A thrown knife follows projectile motion between release and target.