Momentum and Impulse
... impulse = change in momentum, If no impulse is exerted on an object, the momentum of the object will not change. ...
... impulse = change in momentum, If no impulse is exerted on an object, the momentum of the object will not change. ...
Quantum algorithms - People @ EECS at UC Berkeley
... Now let us look more closely at the quantum part of the algorithm. Some of the key quantum operations (which we will soon discuss) can be thought of as looking for certain kinds of patterns in a superposition of states. Because of this, it is helpful to think of the algorithm as having two stages. I ...
... Now let us look more closely at the quantum part of the algorithm. Some of the key quantum operations (which we will soon discuss) can be thought of as looking for certain kinds of patterns in a superposition of states. Because of this, it is helpful to think of the algorithm as having two stages. I ...
Spontaneous Dimensional Reduction in Quantum Gravity
... with no real ambiguity. But quantum gravity is harder. Already in quantum mechanics, path integrals are dominated by nowhere-smooth paths with fractal dimensions [4], and smooth one-dimensional paths appear only semiclassically. If smooth large-scale spacetime is emergent, as many approaches to quan ...
... with no real ambiguity. But quantum gravity is harder. Already in quantum mechanics, path integrals are dominated by nowhere-smooth paths with fractal dimensions [4], and smooth one-dimensional paths appear only semiclassically. If smooth large-scale spacetime is emergent, as many approaches to quan ...
Rotational Dynamics
... Equation: F·r = I·; the units for rotational inertia are kg·m2/rad2. Rotational inertia and legs: short legs have less rotational inertia than long legs. An animal with shorter legs has a quicker stride than one with long legs (same is true for pendulums). When running, we bend our legs to redu ...
... Equation: F·r = I·; the units for rotational inertia are kg·m2/rad2. Rotational inertia and legs: short legs have less rotational inertia than long legs. An animal with shorter legs has a quicker stride than one with long legs (same is true for pendulums). When running, we bend our legs to redu ...
Impulse, momentum, and center of mass
... Clearly, the total change in momentum for the system is zero, and this derivation works regardless of whether or not the magnets began at rest. So internal forces like the one shown above cannot change the momentum of a system. If the sum of the external impulses also adds to zero, then the system c ...
... Clearly, the total change in momentum for the system is zero, and this derivation works regardless of whether or not the magnets began at rest. So internal forces like the one shown above cannot change the momentum of a system. If the sum of the external impulses also adds to zero, then the system c ...
