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arXiv:quant-ph/9806047 · Lecture notes in computer science

What Information Theory Can Tell Us About Quantum Reality

Christoph Adami, Nicolas J. Cerf

Published Jan 1, 1999• 19 citations
arXivHTMLPDF
DOI
10.1007/3-540-49208-9_22

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Quantum information processing is the result of using the physical reality that quantum theory tells us about for the purposes of performing tasks that were previously thought impossible or infeasible. Devices that perform quantum information processing are known as quantum computers. Quantum theory has emerged as an advancement in scientific thoughts which helps in analysing inconceivable situations. Like various laws in physics, information can be processed in various ways in computer. At present, there are various algorithms which enhances the advantages of quantum computers. In this paper, we will study about the basics of quantum computing,. If we believe the hype, this nascent technology embodies the promise of the future and has the potential to revolutionize our lives with its turbo-charged computation.
Despite the tremendous empirical success of quantum theory there is still widespread disagreement about what it can tell us about the nature of the world. A central question is whether the theory is about our knowledge of reality, or a direct statement about reality itself. Current interpretations of quantum theory, regardless of their stance on this question, regard the Born rule as fundamental and add an independent state update (or 'collapse') rule to describe how quantum states change upon measurement. In this paper we present an alternative perspective and derive a unified probability rule that subsumes both the Born rule and the collapse rule. We show that this more fundamental probability rule can provide a rigorous foundation for informational, or 'knowledge-based', interpretations of quantum theory. Our result requires an assumption of instrument non-contextuality, a key notion that generalises previous approaches to non-contextuality. Therefore, the framework also permits one to consider non-contextuality in scenarios with arbitrary causal structure.