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

<record version="7" id="2796">
 <title>multi-linear</title>
 <name>Multilinear</name>
 <created>2002-03-20 22:12:50</created>
 <modified>2006-09-16 13:46:09</modified>
 <type>Definition</type>
 <creator id="146" name="rmilson"/>
 <author id="13753" name="Mathprof"/>
 <author id="146" name="rmilson"/>
 <classification>
	<category scheme="msc" code="15A69"/>
 </classification>
 <synonyms>
	<synonym concept="multi-linear" alias="multi-linearity"/>
	<synonym concept="multi-linear" alias="multilinear"/>
	<synonym concept="multi-linear" alias="multilinearity"/>
 </synonyms>
 <related>
	<object name="BilinearForm"/>
	<object name="BilinearMap"/>
 </related>
 <preamble>\usepackage{amsmath}
\usepackage{amsfonts}
\usepackage{amssymb}

\newcommand{\reals}{\mathbb{R}}
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\newcommand{\cnums}{\mathbb{C}}
\newcommand{\znums}{\mathbb{Z}}

\newcommand{\lp}{\left(}
\newcommand{\rp}{\right)}
\newcommand{\lb}{\left[}
\newcommand{\rb}{\right]}

\newcommand{\supth}{^{\text{th}}}


\newtheorem{proposition}{Proposition}</preamble>
 <content>Let $V_1, V_2,\ldots, V_n, W$ be vector spaces over a field $K$.  A
mapping $$M: V_1\times V_2\times \cdots \times V_n \rightarrow W$$ is
called {\em multi-linear} or $n$-linear, if $M$ is linear in each of
its arguments.

\paragraph{Notes.}
\begin{itemize}
\item  A bilinear mapping is another name for a $2$-linear mapping.
\item This definition generalizes in an obvious way to rings and
  modules.
\item An excellent example of a multi-linear map is the determinant operation.
 \end{itemize}</content>
</record>
