From 2377dfb7072068665f3473c315c9b4decbf53234 Mon Sep 17 00:00:00 2001 From: eneller Date: Sun, 10 May 2026 22:58:51 +0200 Subject: [PATCH] update --- crypto.tex | 11 +++++++++-- 1 file changed, 9 insertions(+), 2 deletions(-) diff --git a/crypto.tex b/crypto.tex index e243927..16938d5 100644 --- a/crypto.tex +++ b/crypto.tex @@ -214,7 +214,7 @@ The algorithm they came up with relies on modular arithmetic, which remains the \begin{enumerate} \item Choose randomly and stochastically independet primes $p,q$ of similar size so that - $0.1 < | \log_2 p - \log_2 q | < 30 $. + \newline$0.1 < | \log_2 p - \log_2 q | < 30 $. \item Calculate $ N= p \cdot q $ \item Compute Euler's totient function of $ \varphi (N) = (p-1) \cdot (q-1)$ which is kept secret. \item Choose an integer $e$ so that $ 1 < e < \varphi (N) $ and $\gcd(e, \varphi(N)) =1$, i.e. $e$ and $\varphi(N)$ @@ -227,7 +227,14 @@ The algorithm they came up with relies on modular arithmetic, which remains the Trust on the web with untrusted channels fundamentally remains an unsolved issue, though depending on the threat model, everyday communications can be considered relatively secure from non-APT actors. A typical cipher suite employed by TLS could look like the following: -$$\ub{ECDHE}{Key exchange}-\ub{ECDSA}{authentication}-\ub{AES128}{encryption}-\ub{GCM}{Galois/counter mode}-\ub{SHA256}{hashing} $$ +$$\ub{ECDHE}{Key exchange}-\ub{ECDSA}{authentication}-\ub{AES128}{encryption}-\ub{GCM}{Cipher operation mode}-\ub{SHA256}{hashing} $$ +\begin{itemize} + \item \textbf{ECDHE} Elliptic Curve Diffie Hellman Exchange + \item \textbf{ECDSA} Elliptic Curve Digital Signing Algorithm + \item \textbf{AES128} 128-Bit \acrfull{AES} symmetric encryption + \item \textbf{GCM} Galois Counter Mode + \item \textbf{SHA256} Secure Hash Algorithm +\end{itemize} \cite{enwiki:ciphersuite,enwiki:galoismode} %\printglossary[type=\acronymtype] %\printglossary