Max Born was the first to note that the Schroendinger Equation (SE) -- ONE way to approach quantum mechanics -- could be used to accurately predict the PROBABILITY of an electron being at a specific location, given that the electron was in a specific energy field that was well-defined for all locations.
For example, the SE for a single electron, in its lowest state around a positive nucleus, shows (after a LOT of math) that the electron is MOST likely at a distance of one Bohr Radius from that nucleus. Born was the first to note that quantum mechanics could never say EXACTLY where the electron was at any one time, but that it could very accurately determine the PROBABILITY that it was at a specified point.
Very ironically, Schroendinger himself never really accepted Born's idea.
Werner Heisenberg, Max Born, & Pascual Jordan developed an alternate approach to quantum mechanics that used operators and matrix mechanics to give eigenvalues for variables such as position. It was FAR more complicated than the SE, but also has more application. Heisenberg was soon able to show that the SE and the approach he & his colleagues developed were essentially the same.
The amplitude of an electron wave in quantum mechanics represents the probability of finding the electron at a specific location. It is a key factor in determining the behavior and properties of electrons in the quantum world.
The wavefunction in quantum mechanics describes the probability of finding a particle in a particular state or location.
An electron's location or momentum, but not both.
the most probable location of an electron
the most probable location of an electron
In the field of quantum mechanics, the color of an electron is not significant. Instead, the focus is on the electron's properties such as its energy levels, spin, and position within an atom. These properties determine the behavior and interactions of electrons in the quantum world.
Electrons are most commonly found in the electron cloud surrounding the nucleus of an atom. The exact location of an electron within this cloud cannot be pinpointed precisely due to the probabilistic nature of electron behavior described by quantum mechanics.
The angular momentum of an electron in quantum mechanics is significant because it helps determine the energy levels and behavior of the electron within an atom. It is a fundamental property that influences the electron's motion and interactions with other particles.
The model used to describe the behavior of very small particles like electrons orbiting an atom is the quantum mechanical model. This model incorporates principles of quantum mechanics to describe the probability of finding an electron at different locations around the nucleus of an atom.
The purpose of using the "phase operator" in quantum mechanics is to describe the phase of a quantum state, which is important for understanding interference effects and the behavior of quantum systems.
Electron motion is a perfect example of how quirky quantum science is. When not being observed, an electron acts like a wave of energy. When being observed, it acts like a particle. So scientists describe the location of an electron as a probability.
Which sub level the electron is in.