Barker's equation is used to describe one phenomenon that occurs in this shape, and a rotatingfluid in a container takes on this shape. In quantum mechanics, a potential of this shape gives rise towavefunctions that are the product of a Gaussian function and a Hermite polynomial. In celestialmechanics, an object moving in this shape has velocity square root of two G M over r, and captureorbits and escape orbits have this shape. A charge moving straight when entering a uniform electric(*) field will travel in this shape. Lenses in this shape so no spherical aberration, since they focus allparal
Barker's equation is used to describe one phenomenon that occurs in this shape, and a rotatingfluid in a container takes on this shape. In quantum mechanics, a potential of this shape gives rise towavefunctions that are the product of a Gaussian function and a Hermite polynomial. In celestialmechanics, an object moving in this shape has velocity square root of two G M over r, and captureorbits and escape orbits have this shape. A charge moving straight when entering a uniform electric(*) field will travel in this shape. Lenses in this shape so no spherical aberration, since they focus allparallel rays at a point. For 10 points, name this shape, which is also traced out by a projectile fired into theair at an angle with no air resistance.
Barker's equation is used to describe one phenomenon that occurs in this shape, and a rotatingfluid in a container takes on this shape.
parabolic [or parabola or paraboloid]