Example of an automated script that does most of this: https://github.com/surpher/PactSwiftMockServer/blob/fb8148866bb05f49a0b1dcaae66c67bad1e7eca7/Support/build_rust_dependencies
curl https://sh.rustup.rs -sSf | sh
use tokio::io::{AsyncReadExt, AsyncWriteExt}; | |
use tokio::net::TcpListener; | |
#[tokio::main] | |
async fn main() -> Result<(), Box<dyn std::error::Error>> { | |
let listener = TcpListener::bind("127.0.0.1:8080").await?; | |
println!("Echo server listening on 127.0.0.1:8080"); | |
loop { | |
let (mut socket, addr) = listener.accept().await?; |
use std::collections::BTreeMap; | |
fn main() { | |
// Let's create a nested B-tree structure: | |
// A BTreeMap where keys are strings (e.g., "country") | |
// and values are another BTreeMap (e.g., "city" -> population). | |
let mut world_populations: BTreeMap<String, BTreeMap<String, u64>> = BTreeMap::new(); | |
// Add some data for "USA" | |
let mut usa_cities = BTreeMap::new(); | |
usa_cities.insert("New York".to_string(), 8_468_000); |
fn is_palindrome(n: u64) -> bool { | |
if n < 10 { | |
return true; // Single-digit numbers are palindromes | |
} | |
let s = n.to_string(); | |
s == s.chars().rev().collect::<String>() | |
} | |
fn generate_palindromes_up_to(limit: u64) -> Vec<u64> { | |
let mut palindromes = Vec::new(); |
use tokio::io::{AsyncReadExt, AsyncWriteExt}; | |
use tokio::net::TcpListener; | |
#[tokio::main] | |
async fn main() -> Result<(), Box<dyn std::error::Error>> { | |
let listener = TcpListener::bind("127.0.0.1:8080").await?; | |
println!("Echo server listening on 127.0.0.1:8080"); | |
loop { | |
let (mut socket, addr) = listener.accept().await?; |
Example of an automated script that does most of this: https://github.com/surpher/PactSwiftMockServer/blob/fb8148866bb05f49a0b1dcaae66c67bad1e7eca7/Support/build_rust_dependencies
curl https://sh.rustup.rs -sSf | sh
#!/bin/bash | |
# bash_c_example.sh | |
# Directory to store the C source file and the executable | |
EXAMPLES_DIR="$HOME/bash_c_examples" | |
# Ensure the directory exists, create it if not | |
mkdir -p "$EXAMPLES_DIR" | |
# Check if hello_world.c and hello_world executable already exist |
use std::collections::HashMap; | |
use std::io::{self, Read, Write}; | |
#[derive(Debug, PartialEq)] | |
enum GitVfsError { | |
NotFound, | |
AlreadyExists, | |
InvalidOperation, | |
} |
#!/bin/bash | |
# --- Configuration --- | |
INSTALL_DIR="/usr/local/bin" | |
SCRIPT_NAME="git-clone-gists" | |
# --- Functions --- | |
# Function to display usage information | |
show_usage() { |
use tokio::sync::oneshot; | |
async fn some_computation() -> String { | |
"represents the result of the computation".to_string() | |
} | |
#[tokio::main] | |
async fn main() { | |
let (tx, rx) = oneshot::channel(); |
After conducting a thorough security analysis of the Ashigaru Terminal codebase, we can definitively conclude that Ashigaru Terminal HAS implemented a fix for the RSA blinding deanonymization vulnerability. The client now uses hardcoded RSA public keys and explicitly rejects any attempts by the coordinator to provide different keys to different clients, effectively preventing the potential deanonymization attack vector.
The RSA blinding vulnerability in Whirlpool coinjoins centers around the blind signature mechanism used during the mixing process. In a properly implemented coinjoin system, all participants should use the same RSA public key for blinding their signatures. However, if a malicious coordinator could send different RSA public keys to different clients, it would be able to deanonymize users by correlating the blinded signatures with their unblinded counterparts during