Eventually in my mind it comes down to the original wave-particle duality.

In physics, it has been seen as an analogy for the wave-particle duality.

Due to the wave-particle duality, all moving particles also have wave character.

For a view from modern physics see wave-particle duality.

These equations allow wave-particle duality can be assessed as follows.

For example, the wave-particle duality of physical objects are such complementary phenomena.

Albert Einstein first explained the wave-particle duality of light in 1905.

But Einstein paved the way in 1905 by embracing wave-particle duality.

A foundation approach to quantum Theory that does not rely on wave-particle duality.

This property is referred to as the wave-particle duality.

This explains the name "wave function", and gives rise to wave-particle duality.

This experimental result is called the "wave-particle duality" in quantum mechanics.

This result establishes the principle known as wave-particle duality.

This complementarity has come to be known as the wave-particle duality of quantum mechanics.

Buckminsterfullerene is the largest object to have been shown to exhibit wave-particle duality.

This is called the wave-particle duality and can be demonstrated using the double-slit experiment.

The concept of wave-particle duality was developed because of the photoelectric effect.

The central tenet of complementarity resides in the "wave-particle duality."

The modern theory that explains the nature of light includes the notion of wave-particle duality.

By wave-particle duality the effect can be analyzed purely in terms of waves though not as conveniently.

THE number of games that can be played to illustrate wave-particle duality is proliferating.

An elegant example of wave-particle duality, the double slit experiment, is discussed in the section below.

Wave-particle duality defines the impulse of a wave collision.

This behavior is often called wave-particle duality.

The double-slit experiment is an illustration of wave-particle duality.