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Variety:
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=Varieties=
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from [[Lecture_1_-_Introduction_OldKiwi|Lecture 1, ECE662, Spring 2010]]
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----
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A variety is a mathematical construct used to define [[Decision Surfaces_OldKiwi]].  Intuitively, it is the zero set of polynomials that tells 'what kind of set can you get?' in a particular case.
 
A variety is a mathematical construct used to define [[Decision Surfaces_OldKiwi]].  Intuitively, it is the zero set of polynomials that tells 'what kind of set can you get?' in a particular case.
  
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<math>\mathbf{V} (\mathbf{P})=\left\{ \mathbf{x}\in \Re ^n : p(\mathbf{x})=0 \  for \  all \  p \in \mathbf{P} \right\}</math>
 
<math>\mathbf{V} (\mathbf{P})=\left\{ \mathbf{x}\in \Re ^n : p(\mathbf{x})=0 \  for \  all \  p \in \mathbf{P} \right\}</math>
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----
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[[Lecture_1_-_Introduction_OldKiwi|Back to Lecture 1, ECE662, Spring 2010]]

Revision as of 09:45, 10 June 2013

Varieties

from Lecture 1, ECE662, Spring 2010


A variety is a mathematical construct used to define Decision Surfaces_OldKiwi. Intuitively, it is the zero set of polynomials that tells 'what kind of set can you get?' in a particular case.

Definition: Let

$ \mathbf{x}\in {\Re}^n $ and $ \mathbf{P} $ be set of polynomials: $ \Re ^n \rightarrow \Re $.

Then variety is given by

$ \mathbf{V} (\mathbf{P})=\left\{ \mathbf{x}\in \Re ^n : p(\mathbf{x})=0 \ for \ all \ p \in \mathbf{P} \right\} $


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