The double-slit experiment illustrates the counterintuitive nature of quantum mechanics, showing that particles like electrons can exhibit wave-like behavior and interfere with themselves.

A qubit, which represents a property of particles called "spin," can exist in a superposition of states, unlike classical objects that are either one state or another.

One misconception about quantum computing is that people often say quantum computers are powerful because they can superpose states, allowing them to perform many computations at once. However, this is misleading because ultimately, you need to make a measurement to read out the result, which limits the information you can obtain from those computations.

In quantum mechanics, particles like electrons can explore every possible route from emission to detection, which many physicists now accept as a correct description of reality.

The double-slit experiment demonstrates that electrons can explore multiple paths simultaneously, challenging our classical understanding of particles following definite routes.

The many worlds explanation is currently the best way to explain quantum mechanics, but its epistemic status can change with new experiments.

The principle of equivalence in general relativity conflicts with the principle of superposition in quantum mechanics, highlighting a fundamental tension between these two theories.

In quantum mechanics, the wave function is typically linear, allowing for the superposition of states, but in my approach, I consider a non-linear graviton wave function.

Quantum entanglement means that when two particles are entangled, measuring one instantly determines the state of the other, regardless of the distance between them.