2020
			
	    
	
	
    The Heisenberg Indeterminacy Principle in the Context of Covariant Quantum Gravity
TESSAROTTO, Massimo and Claudio CREMASCHINIBasic information
Original name
The Heisenberg Indeterminacy Principle in the Context of Covariant Quantum Gravity
	Authors
TESSAROTTO, Massimo (380 Italy, belonging to the institution) and Claudio CREMASCHINI (380 Italy, belonging to the institution)
			Edition
 Entropy, 2020, 1099-4300
			Other information
Language
English
		Type of outcome
Article in a journal
		Field of Study
10308 Astronomy
		Country of publisher
Switzerland
		Confidentiality degree
is not subject to a state or trade secret
		References:
Impact factor
Impact factor: 2.524
			RIV identification code
RIV/47813059:19630/20:A0000061
		Organization unit
Institute of physics in Opava
			UT WoS
000592759200001
		EID Scopus
2-s2.0-85094108085
		Keywords in English
covariant quantum gravity; Heisenberg indeterminacy principle; Heisenberg inequalities; quantum probability density function; deterministic limit
		Tags
International impact, Reviewed
		
				
				Changed: 23/3/2021 22:09, Mgr. Pavlína Jalůvková
				
		Abstract
In the original language
The subject of this paper deals with the mathematical formulation of the Heisenberg Indeterminacy Principle in the framework of Quantum Gravity. The starting point is the establishment of the so-called time-conjugate momentum inequalities holding for non-relativistic and relativistic Quantum Mechanics. The validity of analogous Heisenberg inequalities in quantum gravity, which must be based on strictly physically observable quantities (i.e., necessarily either 4-scalar or 4-vector in nature), is shown to require the adoption of a manifestly covariant and unitary quantum theory of the gravitational field. Based on the prescription of a suitable notion of Hilbert space scalar product, the relevant Heisenberg inequalities are established. Besides the coordinate-conjugate momentum inequalities, these include a novel proper-time-conjugate extended momentum inequality. Physical implications and the connection with the deterministic limit recovering General Relativity are investigated.