By what can we reduce the exponent of an element in a finite order Group?
Note 1: ETH::DiskMat
Note Type: Horvath Classic
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hx=y:u%$sF
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By what can we reduce the exponent of an element in a finite order Group?
In a group \(G\) of finite order, for \(a \in G\): \[a^m = a^{R_{\text{ord}(a)}(m)}\]This holds because:
\(a^m = a^{m + \text{ord}(a)}\)
\( = a^m \cdot a^{\text{ord}(a)}\)
\( = a^m \cdot e = a^m\)
After
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By what can we reduce the exponent of an element in a finite order Group?
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By what can we reduce the exponent of an element in a finite order Group?
In a group \(G\) of finite order, for \(a \in G\): \[a^m = a^{R_{\text{ord}(a)}(m)}\]This holds because:
\(a^m = a^{m + \text{ord}(a)}\)
\( = a^m \cdot a^{\text{ord}(a)}\)
\( = a^m \cdot e = a^m\)
Note 2: ETH::DiskMat
Note Type: Horvath Cloze
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sxW-Trt$`+
Deleted Note
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\(\mathbb{Z}_m^*\) is defined as?
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\(\mathbb{Z}_m^*\) is defined as?
\[ \overset{\text{def}}{=} \ \{a \in \mathbb{Z}_m \ | \ \gcd(a, m) = 1\} \]
This is the set of all elements in \(\mathbb{Z}_m\) that are coprime to \(m\).
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Note 3: ETH::DiskMat
Note Type: Horvath Cloze
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G&Y|dtr7^k
Deleted Note
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If the prime factorization of \(m\) is \(m = \prod_{i=1}^r p_i^{e_i}\) then \(\varphi(m)\) is?
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If the prime factorization of \(m\) is \(m = \prod_{i=1}^r p_i^{e_i}\) then \(\varphi(m)\) is?
For a prime and :\[\varphi(m) = \prod_{i=1}^r (p_i - 1)p_i^{e_i - 1}\]
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