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== '''<big>The Mysteries of the number ''e''</big>''' ==
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== '''<big>The Mysteries of the Number ''e''</big>''' ==
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Authors: Rundong Huang, Donnie Adams, John Miguel Roth-Garcia, Mihir Tiwari, Austin Weaver
  
'''Introduction'''<br />
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==Table of Contents==
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*[[page_2|Introduction]]
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*[[page_3|Defining e]]
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*[[page_4|Compound Interest]]
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*[[page_5|Euler's Formula]]
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*[[page_6|Bernoulli Trials and Binomial Distribution]]
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*[[page_9|Derangements]]
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*[[page_7|References]]
  
The number "e" is one of the most important constants in all of mathematics. The value of "e" is approximately 2.71828... and goes on infinitely as it is irrational. Jacob Bernoulli originally came up with a formula for the constant in 1683 while he was doing work related to compound interest. However, it was Leonard Euler in 1731 who did a lot of work with the number and ended up giving it the symbol "e" as it is known today. Since then the number has played an important role in a number of fields past just mathematics including finance and physics.
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[[Category:MA279Fall2018Walther]]
 
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'''Defining ''e''''' <br />
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When Jacob Bernoulli was studying compound interest in 1683, he came up with a formula he was trying to find a value for:<br />
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[[File:Bernoulli.png|125px|thumbnail|Bernoulli's Formula]]. If one were to use bigger and bigger values of ''n'', the result would eventually
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Latest revision as of 00:39, 3 December 2018

The Mysteries of the Number e

Authors: Rundong Huang, Donnie Adams, John Miguel Roth-Garcia, Mihir Tiwari, Austin Weaver

Table of Contents

Alumni Liaison

Abstract algebra continues the conceptual developments of linear algebra, on an even grander scale.

Dr. Paul Garrett