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Demonstration of quantum entanglement

Gaurav Rozatkar

Published Aug 16, 2018• 1 citation
OpenAlex

Abstract

With the advancement of quantum computers it is very much tempting to experience the laws of physics without having to build sophisticated apparatus on our own. The following experiment demonstrates the existence of phenomena of quantum entanglement as we know it.

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This chapter explores intuition in the context of phenomena that involve action at-a-distance – the transmission of a force or effect by no known physical means. Because they contradict the laws of physics, they defy reason and commonsense. Nowadays, though, action-at-a-distance is known as nonlocality. And, following experiments confirming quantum entanglement in the 1980s, nonlocality is accepted as a scientific fact. Moreover, because the individual particles in particle pairings appear to act is if they instantly ‘know’ what is happening to each other and display an unconditional, unbreakable union, some physicists characterize this bond as ‘passion at-a-distance’. In short, quantum entanglement is not only seen as fundamental to understanding the physical universe but is also thought integral to the question of consciousness – and may provide a new explanation for group intuitions.
Quantum computing is a rapidly evolving industrial technology that employs quantum mechanics laws to address issues that traditional archaic computers find impossible to solve. It is a computation method that uses phenomena like superposition, interference, and entanglement. It is one of the most effective theories in the twentieth century, contributing towards the progressive growth of scientific investigations. In this modern-day world, there have been certain advancements in quantum computers that have encouraged researchers to opt for different algorithms. There are certain drawbacks in the architecture, mainly the presence of certain physical constraints that restricts the logical qubits to get mapped and converted to physical qubits. This chapter puts forward the modern-day trends in the field of quantum computing, and it also focuses on the various restrictions faced in building a device following the principles of quantum computing.
We present the Inverse Reality Hypothesis, a speculative theoretical framework proposing that the human brain is not a byproduct of universal physical laws, but rather the fundamental architecture through which physical reality is generated. Drawing on quantum mechanical phenomena, particularly the observer-dependent collapse described in double-slit experiments, and on the quantum entanglement theory, we propose that, instead of the traditional approach where the brain is a byproduct of universal laws and mathematical probability, its our brain that dictates the laws that govern the universe, every event that occurs following the probabilistic collapse into objective events, leading physical reality to be a byproduct of neural rendering. Under this hypothesis, the universe does not exist as a pre-determined entity, but as a probabilistic output generated in real-time by neural processing power.