IP | Country | PORT | ADDED |
---|---|---|---|
192.252.216.81 | us | 4145 | 35 minutes ago |
208.65.90.21 | us | 4145 | 35 minutes ago |
189.202.188.149 | mx | 80 | 35 minutes ago |
194.219.134.234 | gr | 80 | 35 minutes ago |
46.32.15.59 | ir | 3128 | 35 minutes ago |
80.120.49.242 | at | 80 | 35 minutes ago |
111.177.48.18 | cn | 9501 | 35 minutes ago |
208.65.90.3 | us | 4145 | 35 minutes ago |
128.140.113.110 | de | 4145 | 35 minutes ago |
198.8.94.170 | us | 4145 | 35 minutes ago |
113.108.13.120 | cn | 8083 | 35 minutes ago |
199.58.185.9 | us | 4145 | 35 minutes ago |
192.252.220.89 | us | 4145 | 35 minutes ago |
198.12.249.249 | us | 26829 | 35 minutes ago |
79.110.200.148 | pl | 8081 | 35 minutes ago |
220.167.89.46 | cn | 1080 | 35 minutes ago |
87.248.129.26 | ae | 80 | 35 minutes ago |
211.128.96.206 | 80 | 35 minutes ago | |
50.63.12.101 | us | 27071 | 35 minutes ago |
199.187.210.54 | us | 4145 | 35 minutes ago |
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UDP Hole Punching is a technique used to establish a connection between two devices behind NAT (Network Address Translation) firewalls. It works by exploiting the fact that some UDP packets can still pass through the NAT firewall even if the source and destination ports are the same. However, UDP Hole Punching does not always bypass NAT for several reasons:
1. Symmetric NAT: In symmetric NAT, both the source and destination ports are translated, and the NAT firewall maintains a table of active connections. If the table is not updated correctly, UDP hole punching may not work.
2. Unstable NAT: Some NAT firewalls are known to be unstable, causing them to drop packets or change their behavior unexpectedly. This can lead to failure in establishing a connection using UDP hole punching.
3. Firewall rules: Some NAT firewalls have strict rules that prevent UDP hole punching from working. For example, if the firewall is configured to block all incoming UDP traffic, UDP hole punching will not be successful.
4. Timeout: NAT firewalls have a timeout for their connection tables. If the timeout occurs before the connection is established, UDP hole punching will fail.
5. Network congestion: If the network is congested, packets may be dropped or delayed, causing UDP hole punching to fail.
In summary, while UDP hole punching can be an effective technique for bypassing NAT, it does not always guarantee a successful connection due to various factors such as NAT behavior, firewall rules, and network conditions.
A Duplex UDP Communicator is a communication system that allows for two-way communication using User Datagram Protocol (UDP). To wait for a response from the other side, you can implement a simple client-server model. Here's a high-level overview of how to achieve this:
1. Server-side:
- Bind a UDP socket to a specific port on the server.
- Start a loop that continuously listens for incoming UDP packets.
- Receive the UDP packet and extract the data.
- Process the received data and prepare a response.
- Send the response back to the client using the client's address and port extracted from the received packet.
- Continue listening for incoming packets.
2. Client-side:
- Bind a UDP socket to a specific port on the client.
- Send a UDP packet to the server's address and port.
- Start a loop that continuously listens for incoming UDP packets.
- Receive the UDP packet and extract the data.
- Process the received data and prepare a response.
- Send the response back to the server using the server's address and port extracted from the received packet.
- Continue listening for incoming packets.
To wait for a response from the other side, you can use a simple time-based approach or a more advanced synchronization mechanism.
3. Time-based approach:
- After sending a packet, wait for a specific amount of time before expecting a response.
- If a response is received within the waiting time, process the response and proceed.
- If the waiting time elapses without receiving a response, handle the timeout and take appropriate action (e.g., retry, abort, or notify the user).
4. Synchronization mechanism:
- Include a unique identifier in each packet sent.
- When the server receives a packet, it sends back a response with the same identifier.
- The client waits for a response with the same identifier before proceeding.
- If a response with the same identifier is received, process the response and proceed.
- If a response with a different identifier is received, discard it and continue waiting for the expected response.
- If no response is received within a specific time, handle the timeout and take appropriate action.
Using a synchronization mechanism is more reliable than a time-based approach, as it ensures that the client only processes responses from the expected server. However, both methods can be effective depending on the specific use case and network conditions.
To emulate mouse wheel scrolling and keystrokes in Selenium WebDriver with Node.js, you can use the Actions class to perform these actions. Here's an example that demonstrates scrolling and sending keystrokes:
const { Builder, By, Key } = require('selenium-webdriver');
(async function example() {
// Create a new instance of the WebDriver
const driver = await new Builder().forBrowser('chrome').build();
try {
// Navigate to a webpage
await driver.get('https://example.com');
// Perform mouse wheel scrolling
await driver.actions().move({ x: 0, y: 0 }).sendKeys(Key.PAGE_DOWN).perform();
await driver.sleep(1000); // Sleep for 1 second to see the effect
// Perform keystrokes in an input field
const inputField = await driver.findElement(By.css('input[type="text"]'));
await inputField.sendKeys('Hello, this is some text.');
await driver.sleep(1000); // Sleep for 1 second to see the effect
} finally {
// Close the browser window
await driver.quit();
}
})();
- driver.actions() creates an instance of the Actions class.
- move({ x: 0, y: 0 }) is used to position the mouse at coordinates (0, 0).
- sendKeys(Key.PAGE_DOWN) performs a mouse wheel scrolling action. You can replace Key.PAGE_DOWN with other keys or combinations according to your needs.
- sendKeys() is also used to input text into an input field. The inputField variable is a reference to the input field on the webpage, and sendKeys() is called to type text into it.
Make sure to replace the URL in driver.get('https://example.com') with the URL of the webpage you are working on, and adjust the CSS selector for the input field according to your webpage's structure.
Additionally, you may need to install the selenium-webdriver package if you haven't already:
npm install selenium-webdriver
There are HTTP proxy, FTP proxy, SOCKS proxy, SMTP proxy, CGI proxy. They differ only in the data transmission protocol used and the purpose for which they are used. For example, SMTP proxy allows you to organize a secure server for e-mail.
There are 2 ways to do this. The first is to manually change the settings in /etc/environment, but you will definitely need root access to do that. You can also use the Network Manager utility (compatible with all common DEs). You just have to make sure beforehand that the driver for the network adapter to work properly is installed on the system.
What else…