Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Log inSign up
Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Blog
Job Board
Q3AS

© 2026 Aqora Quantum S.A.S.

TermsPrivacyLegal Notice

Journal of Hechi University

The Paradigm Information of Theory of Observocontrol Relativity--concurrently comment on the two new kinds of explanation of quantum mechanics

Liu Yue-sheng

Published Jan 1, 2004• 0 citations
OpenAlex

Abstract

The two new kinds of explanation of quantum mechanics are demonstrated, one aims at structureinformation, the other aims at communication information, the new Theory of Observocontrol relativity pattern--paradigm information is established only the two new explanations are unified.

Related papers

A State-of-the-art Review on Quantum Information Computing

R. Ku. Jena, Prabhat Mahanti

The subject of quantum computing brings ideas from classical information theory, computer science, and quantum physics. Quantum mechanics provide new computational paradigms that had not been imagined prior to the 1980's and whose power was not fully appreciated until the mid 1990's.This review aims to succinctly summarize not just quantum computing, but the whole subject of quantum information theory.

International Journal of Engineering•May 31, 2017•2 citations

I. Why Quantum Mechanics Makes Sense

Conrad Dale Johnson

We take it for granted that our physical environment communicates information, making things observable and measurable. However, there are very strong constraints on the fundamental physics of any universe that can do this. Measuring or communicating any kind of information always requires an appropriate interactive context, and these contexts are necessarily complex, involving other kinds of information determined in different contexts. This makes measurement hard to grasp theoretically, since every measurement depends on other kinds of measurements. Even so, we can identify some basic functional requirements for a physics that determines and communicates facts. These are sufficient to explain the peculiar features of quantum mechanics, combining the unitary evolution of superpositions with the mysterious "collapse" that occurs whenever the context allows new facts to be defined. Moreover, the precise determinism of classical physics can be understood on the same basis. It seems likely, in fact, that most of the complexity and fine-tuning we see in our most fundamental theories is needed to make any kind of information measurable.

Terry s Archive Online•Sep 18, 2021•0 citations

The Significant Reform of New Measurement Viewpoint——Comment on Cheng Su-mei' Measurement Philosophy

Han Feng

Relative Viewpoint caused by the problems of Quantum Mechanics is a kind of Measurement Philosophy,which is put forward by professor Cheng Su-mei and a group of contemporary scientists and science-philosophers through observation to facts then progressed to the degree of philosophy.It has a revolutionary significance both in subjectively and in objectively.This thesis analyzed the difference between the Relative Viewpoint and the classical Absolute Viewpoint,indicating that it is consistent with The Theory of Observocontrol Relativity.

Journal of Huaiyin Teachers College•Jan 1, 2010•0 citations

The Basic Concepts of Quantum Control and Their Philosophical Implications

WU Guo-li

The quantum control theory based on the quantum mechenics and quantum information theory is rising.Quantum control is rather different from classical control.It gives us the new philosophical meanings:wave-function is the unification of quantum reality and quantum information,quantum state is the unification of measurability and controllability,and quantum state is an important resources.

Kexue jishu zhexue yanjiu•Jan 1, 2007•0 citations

THE MEANING OF DECOHERENCE AND A NEW INTERPRETATION OF QUANTUM MECHANICS

Guan Hong

The origin and substance of a new interpretation of quantum mechanics——“decohering histories interpretation”——are introduced. The implications of this progress on the development of quantum theory are discussed.

•Jan 1, 2002•0 citations

Relational Information Towards a New Kind of Information in Quantum Mechanics

Niccolò Covoni, Marco Sanchioni

Abstract This paper argues that von Neumann entropy plays two conceptually distinct roles in quantum theory. When applied to global mixed states, it expresses the quantum analogue of the informational entropy. But when applied to reduced states of entangled systems, it measures objective physical correlations. We propose that this second usage realizes a new informational kind , which we call relational information . Unlike information in communication theory, it reflects structural interdependence between systems, not probability about a certain outcome. We further suggest that this informational kind has ontological significance: relational information is a physically instantiated feature of entangled systems, and not merely an agent-relative concept.

Foundations of Physics•Feb 1, 2026•1 citation
We take it for granted that our physical environment communicates information, making things observable and measurable. However, there are very strong constraints on the fundamental physics of any universe that can do this. Measuring or communicating any kind of information always requires an appropriate interactive context, and these contexts are necessarily complex, involving other kinds of information determined in different contexts. This makes measurement hard to grasp theoretically, since every measurement depends on other kinds of measurements. Even so, we can identify some basic functional requirements for a physics that determines and communicates facts. These are sufficient to explain the peculiar features of quantum mechanics, combining the unitary evolution of superpositions with the mysterious "collapse" that occurs whenever the context allows new facts to be defined. Moreover, the precise determinism of classical physics can be understood on the same basis. It seems likely, in fact, that most of the complexity and fine-tuning we see in our most fundamental theories is needed to make any kind of information measurable.
Relative Viewpoint caused by the problems of Quantum Mechanics is a kind of Measurement Philosophy,which is put forward by professor Cheng Su-mei and a group of contemporary scientists and science-philosophers through observation to facts then progressed to the degree of philosophy.It has a revolutionary significance both in subjectively and in objectively.This thesis analyzed the difference between the Relative Viewpoint and the classical Absolute Viewpoint,indicating that it is consistent with The Theory of Observocontrol Relativity.
Abstract This paper argues that von Neumann entropy plays two conceptually distinct roles in quantum theory. When applied to global mixed states, it expresses the quantum analogue of the informational entropy. But when applied to reduced states of entangled systems, it measures objective physical correlations. We propose that this second usage realizes a new informational kind , which we call relational information . Unlike information in communication theory, it reflects structural interdependence between systems, not probability about a certain outcome. We further suggest that this informational kind has ontological significance: relational information is a physically instantiated feature of entangled systems, and not merely an agent-relative concept.