﻿Url	 Resource class 	Title	Creator	Subject	Description	Publisher	Contributor	Date	Type	Format	Identifier	Source	Language	Relation	Coverage	Rights	 Alternative Title 	Abstract	 Date Available 	 Is Part Of 	 Spatial Coverage 	 Bibliographic Citation 	License	Degree	Editor	Doi	Identifier	Issue	 Page end 	 Page start 	Volume	 Funded by 	 Supported by 	 Contact information 	 Department or school name within institution 	Organization	Biography	 Key Words 	Note	 Editorial note 	 History note 	Type	Coordinates	Start	End	Location	Note
https://wou.omeka.net/s/repository/item/12669		 The Hairy Ball Theorem and Other Hairy Situations 	 Corvette Berthold 					2021-05-27	 Text; Image; MovingImage; StillImage 		aes/305		eng			 Western Oregon University Library has determined, as of 05/27/2021, this item is in copyright, which is held by the author. Users may use the item in accordance with copyright limitations and exceptions, including fair use. For other uses, please ask permission from the author. | <a class="uri-value-link" target="_blank" href="http&#x3A;&#x2F;&#x2F;rightsstatements.org&#x2F;vocab&#x2F;InC&#x2F;1.0&#x2F;">http://rightsstatements.org/vocab/InC/1.0/</a> 		 For this research project a clear and concise definition of the Hairy Ball Theorem, also known as the Hedgehog Theorem, will be considered. This theory addresses the way combed vectors can be visualized by thinking of the hair on an individual’s head or the spines of a rolled-up hedgehog, and how there will always be a zero vector or a cowlick. Look into how the Theorem might interact with higher dimensions or with other shapes in 3-D. Covering how Hopf Fibrations might explain why the Hairy Ball Theorem always holds true. After looking at the proof the question will be posed, “How would manipulated vectors on a shape other than a sphere, specifically a torus or donut shape, behave?” This article is meant to get creative mathematical juices going and encourage us to question, “What if”. 																	Mathematics				 Ben Cote 								
