About: Light-front quantization applications

Facets (new session)
Description
Metadata
Settings
- Rule:
- Inverse Functional Properties:
- "Same As":

About: Light-front quantization applications Goto Sponge NotDistinct Permalink

An Entity of Type : owl:Thing, within Data Space : dbpedia.demo.openlinksw.com associated with source document(s)
QRcode icon

http://dbpedia.demo.openlinksw.com/describe/?url=http%3A%2F%2Fdbpedia.org%2Fresource%2FLight-front_quantization_applications&invfp=IFP_OFF&sas=SAME_AS_OFF

The light-front quantization of quantum field theories provides a useful alternative to ordinary equal-time quantization. In particular, it can lead to a relativistic description of bound systems in terms of quantum-mechanical wave functions. The quantization is based on the choice of light-front coordinates, where plays the role of time and the corresponding spatial coordinate is . Here, is the ordinary time, is a Cartesian coordinate, and is the speed of light. The other two Cartesian coordinates, and , are untouched and often called transverse or perpendicular, denoted by symbols of the type . The choice of the frame of reference where the time and -axis are defined can be left unspecified in an exactly soluble relativistic theory, but in practical calculations some choices may be

Attributes	Values
rdf:type	Thing
rdfs:label	Light-front quantization applications (en)
rdfs:comment	The light-front quantization of quantum field theories provides a useful alternative to ordinary equal-time quantization. In particular, it can lead to a relativistic description of bound systems in terms of quantum-mechanical wave functions. The quantization is based on the choice of light-front coordinates, where plays the role of time and the corresponding spatial coordinate is . Here, is the ordinary time, is a Cartesian coordinate, and is the speed of light. The other two Cartesian coordinates, and , are untouched and often called transverse or perpendicular, denoted by symbols of the type . The choice of the frame of reference where the time and -axis are defined can be left unspecified in an exactly soluble relativistic theory, but in practical calculations some choices may be (en)
rdfs:seeAlso	Cosmological constant problem
foaf:depiction
dcterms:subject	Quantum field theory
Wikipage page ID	43699175 (xsd:integer)
Wikipage revision ID	1114339241 (xsd:integer)
Link from a Wikipage to another Wikipage	Cartesian coordinate system Quantum electrodynamics Quantum field theory Quantum fluctuation Quantum mechanics Birefringence Bound state Path integral formulation Vacuum state EMC effect Light front holography Pauli-Villars regularization Quantum field theories Quantum field theory Cosmological constant Nuclear physics Electroweak interaction Conformal field theory Cosmological constant problem Light-front computational methods Light front quantization Compact star Quark–gluon plasma Brookhaven National Laboratory CERN Wave function Wave functions Weak interactions GSI Helmholtz Centre for Heavy Ion Research Euclidean space Frame of reference Nuclear shell model Form factor (quantum field theory) Quantum chromodynamics QCD Quantization (physics) LHC Laser Effective field theory Dimensional analysis Space-time Special relativity RHIC Radiation reaction Shape of the universe Higgs field Mandelstam variables QCD matter Planck scale Second quantization Unsolved problems in physics Schwinger pair production AdS/CFT Yukawa theory Vacuum fluctuations
Link from a Wikipage to an external page	http://www.saha.ac.in/theory/a.harindranath/light/light.html http://www.ilcacinc.org
sameAs	Light-front quantization applications Light-front quantization applications Light-front quantization applications
dbp:wikiPageUsesTemplate	dbt:Reflist dbt:See_also dbt:Short_description
thumbnail	wiki-commons:Special:FilePath/World_line.svg?width=300
has abstract	The light-front quantization of quantum field theories provides a useful alternative to ordinary equal-time quantization. In particular, it can lead to a relativistic description of bound systems in terms of quantum-mechanical wave functions. The quantization is based on the choice of light-front coordinates, where plays the role of time and the corresponding spatial coordinate is . Here, is the ordinary time, is a Cartesian coordinate, and is the speed of light. The other two Cartesian coordinates, and , are untouched and often called transverse or perpendicular, denoted by symbols of the type . The choice of the frame of reference where the time and -axis are defined can be left unspecified in an exactly soluble relativistic theory, but in practical calculations some choices may be more suitable than others. The basic formalism is discussed elsewhere. There are many applications of this technique, some of which are discussed below. Essentially, the analysis of any relativistic quantum system can benefit from the use of light-front coordinates and the associated quantization of the theory that governs the system. (en)
prov:wasDerivedFrom	wikipedia-en:Light-front_quantization_applications?oldid=1114339241&ns=0
page length (characters) of wiki page	68878 (xsd:nonNegativeInteger)
foaf:isPrimaryTopicOf	wikipedia-en:Light-front_quantization_applications
is Link from a Wikipage to another Wikipage of	Light-front computational methods Light front quantization Pion Light-front quantization
is Wikipage redirect of	Light-front quantization
is foaf:primaryTopic of	wikipedia-en:Light-front_quantization_applications

Faceted Search & Find service v1.17_git139 as of Feb 29 2024

Alternative Linked Data Documents: ODE Content Formats:

RDF

ODATA

Microdata

About

OpenLink Virtuoso version 08.03.3330 as of Mar 19 2024, on Linux (x86_64-generic-linux-glibc212), Single-Server Edition (378 GB total memory, 59 GB memory in use)
Data on this page belongs to its respective rights holders.
Virtuoso Faceted Browser Copyright © 2009-2024 OpenLink Software