<?xml version="1.0" encoding="UTF-8"?>

<record version="2" id="636">
 <title>Representations of canonical anti-commutation relations (CAR)</title>
 <name>RepresentationsOfCanonicalAntiCommutationRelationsCAR</name>
 <created>2009-04-07 11:51:05</created>
 <modified>2009-04-07 11:59:02</modified>
 <type>Topic</type>
 <creator id="441" name="bci1"/>
 <modifier id="441" name="bci1"/>
 <author id="441" name="bci1"/>
 <classification>
	<category scheme="msc" code="00."/>
	<category scheme="msc" code="02."/>
	<category scheme="msc" code="03."/>
	<category scheme="msc" code="03.65.Fd"/>
 </classification>
 <synonyms>
	<synonym concept="Representations of canonical anti-commutation relations (CAR)" alias="CAR"/>
 </synonyms>
 <related>
	<object name="CanonicalCommutationAndAntiCommutationRepresentations"/>
 </related>
 <keywords>
	<term>CAR</term>
	<term>representations</term>
 </keywords>
 <preamble></preamble>
 <content>Thsi is a contributed topic in progress on representations of anti-commutation relations (CAR). (See also previous entries on the representations of 
\PMlinkname{canonical commutation and anti-commutation relations}{CanonicalCommutationAndAntiCommutationRepresentations} CCR).

\subsection{Representations of Canonical Anti-commutation Relations (CAR)}

\subsubsection{CAR Representations in a Non-Abelian Gauge Theory}

One can also provide a representation of canonical anti-commutation relations in a \PMlinkexternal{non-Abelian gauge theory}{http://planetphysics.org/?op=getobj&amp;from=lec&amp;id=124} defined on a non-simply connected region in the two-dimensional Euclidean space. Such representations were shown to provide also a mathematical expression for the non-Abelian, Aharonov-Bohm effect
(\cite{GMS81}). Supersymmetry theories admit both CAR and CCR representations.
Note also the connections of such representations to 
\PMlinkexternal{locally compact quantum groupoid representations.}{http://planetphysics.org/?op=getobj&amp;from=lec&amp;id=5}


\begin{thebibliography}{99}

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\bibitem{AA93b}
Arai A., Commutation properties of anticommuting self-adjoint operators, spin representation and Dirac operators, {\em Integr. Equat. Oper. Th.}, 1993, v.16, 38--63.

\bibitem{AA94}
Arai A., Analysis on anticommuting self--adjoint operators, {\em Adv. Stud. Pure Math.}, 1994, v.23, 1--15.

\bibitem{AA95}
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\bibitem{AA87}
Arai A., Some remarks on scattering theory in supersymmetric quantum mechanics, {\em J. Math. Phys.}, 1987, V.28, 472--476.

\bibitem{GMS81}
Goldin G.A., Menikoff R. and Sharp D.H., Representations of a local current algebra in nonsimply connected space and the Aharonov--Bohm effect, J. Math. Phys., 1981, v.22, 1664--1668.

\bibitem{JVN31}
von Neumann J., Die Eindeutigkeit der Schr\"odingerschen Operatoren,
{\em Math. Ann.}, 1931, v.104, 570--578.

\bibitem{PS90}
Pedersen S., Anticommuting self--adjoint operators, J. Funct. Anal., 1990, V.89, 428--443.

\bibitem{PCR67}
Putnam C. R., Commutation Properties of Hilbert Space Operators, Springer, Berlin, 1967.

\bibitem{RM-SB72}
Reed M. and Simon B., {\em Methods of Modern Mathematical Physics}., vol.I, Academic Press, New York, 1972.

\bibitem{Vainerman}
Vainerman, L. 2003, Locally Compact Quantum Groups and Groupoids: Contributed Lectures., 247 pages; Walter de Gruyter Gmbh &amp; Co, 10785 Berlin 
\PMlinkexternal{(commutative and non-commutative quantum algebra, free download at this web link)}{http://planetphysics.org/?op=getobj&amp;from=lec&amp;id=5}

\end{thebibliography}</content>
</record>
