The Many-Worlds Interpretation suggests that every possible outcome of a quantum event occurs in a separate universe, creating a vast multiverse of parallel universes.

Hugh Everett III is widely recognized as the originator of the Many-Worlds Interpretation, which he first proposed in his doctoral thesis in 1957.

The Many-Worlds Interpretation posits that all possible outcomes of a quantum event occur in distinct universes, resulting in a vast network of parallel universes.

According to the Many-Worlds Interpretation, the different universes are distinct entities that do not interact or communicate with each other.

In the Many-Worlds Interpretation, the wave function is interpreted as a complete description of all possible outcomes of a quantum event, each of which occurs in a separate universe.

A major criticism of the Many-Worlds Interpretation is that it is not falsifiable, meaning it cannot be tested or verified through experiments, making its validity difficult to assess.

Quantum decoherence is a process that causes the wave function of a quantum system to collapse, leading to the appearance of a single outcome. This process is consistent with the idea of parallel universes in the Many-Worlds Interpretation, as it suggests that the different universes become distinct and non-interacting over time.

Schrödinger's cat thought experiment highlights the concept of superposition in quantum mechanics, where a particle or system can exist in multiple states simultaneously. This idea is fundamental to the Many-Worlds Interpretation, as it suggests that all possible outcomes of a quantum event coexist in different universes.

The Many-Worlds Interpretation does not explicitly address the role of consciousness. It focuses on the physical processes that govern the behavior of quantum systems and does not attempt to explain the subjective experience of consciousness.

The Many-Worlds Interpretation challenges our traditional notions of reality by suggesting that reality is non-local, the universe is infinite, and time is not linear but rather a branching structure.

Quantum entanglement is a phenomenon where two particles become correlated in such a way that the state of one particle cannot be described independently of the other. This phenomenon is consistent with the idea of parallel universes in the Many-Worlds Interpretation, as it suggests that the particles exist in different universes but remain connected.

The Many-Worlds Interpretation eliminates the need for wave function collapse by proposing that all possible outcomes of a measurement exist in different universes. Therefore, the act of measurement does not cause the wave function to collapse; instead, it determines which universe the observer is in.

The concept of branching universes in the Many-Worlds Interpretation provides a framework for understanding quantum phenomena by suggesting that every possible outcome of a quantum event occurs in a separate universe. This allows for the coexistence of multiple realities and explains the probabilistic nature of quantum mechanics.

The Many-Worlds Interpretation provides a framework for understanding the role of chance in decision-making by suggesting that every possible choice we make leads to a different universe. This interpretation allows for the coexistence of multiple realities where different versions of ourselves make different choices.