IP | Country | PORT | ADDED |
---|---|---|---|
67.43.228.250 | ca | 25907 | 31 minutes ago |
67.43.227.226 | ca | 26321 | 31 minutes ago |
192.252.209.158 | us | 4145 | 31 minutes ago |
34.124.190.108 | sg | 8080 | 31 minutes ago |
94.232.125.200 | lt | 5678 | 31 minutes ago |
211.75.95.66 | tw | 80 | 31 minutes ago |
72.10.164.178 | ca | 14811 | 31 minutes ago |
67.43.227.227 | ca | 25331 | 31 minutes ago |
67.43.228.254 | ca | 31097 | 31 minutes ago |
67.43.236.20 | ca | 23985 | 31 minutes ago |
181.48.243.194 | 4153 | 31 minutes ago | |
196.1.95.124 | sn | 80 | 31 minutes ago |
72.10.160.170 | ca | 6407 | 31 minutes ago |
67.43.236.19 | ca | 29979 | 31 minutes ago |
87.248.129.26 | ae | 80 | 31 minutes ago |
62.99.138.162 | at | 80 | 31 minutes ago |
125.228.94.199 | tw | 4145 | 31 minutes ago |
190.58.248.86 | tt | 80 | 31 minutes ago |
41.207.187.178 | tg | 80 | 31 minutes ago |
213.16.81.182 | hu | 35559 | 31 minutes ago |
Simple tool for complete proxy management - purchase, renewal, IP list update, binding change, upload lists. With easy integration into all popular programming languages, PapaProxy API is a great choice for developers looking to optimize their systems.
Quick and easy integration.
Full control and management of proxies via API.
Extensive documentation for a quick start.
Compatible with any programming language that supports HTTP requests.
Ready to improve your product? Explore our API and start integrating today!
And 500+ more programming tools and languages
The proxy domain most often refers to the IP address where the server is located. It can only "learn" the IP address of the user when processing the traffic. But in most cases it does not store such information later for security reasons.
If you're facing issues where Selenium WebDriver (using JUnit) is not able to locate elements that were detectable by Selenium IDE, there could be a few reasons for this discrepancy. Here are some common troubleshooting steps:
1. Timing Issues
Selenium WebDriver might execute commands faster than Selenium IDE, leading to timing issues. Add explicit waits in your WebDriver script to ensure that the elements are present or visible before interacting with them.
import org.openqa.selenium.By;
import org.openqa.selenium.WebDriver;
import org.openqa.selenium.WebElement;
import org.openqa.selenium.support.ui.ExpectedConditions;
import org.openqa.selenium.support.ui.WebDriverWait;
// ...
WebDriverWait wait = new WebDriverWait(driver, 10);
// Example: Wait for an element to be clickable
WebElement element = wait.until(ExpectedConditions.elementToBeClickable(By.id("yourElementId")));
element.click();
2. Different Browser Profiles
Selenium IDE may use a different browser profile or settings compared to your WebDriver script. Ensure that the browser profile and settings are consistent.
3. Synchronization Issues
Elements might not be fully loaded or rendered when WebDriver tries to locate them. Add proper synchronization mechanisms to wait for the page to be ready.
4. Browser Window Size
Ensure that the browser window size in Selenium WebDriver is suitable for the elements to be visible. Use the manage().window().maximize() method to maximize the browser window.
driver.manage().window().maximize();
5. JavaScript Execution
Selenium IDE may execute JavaScript differently than WebDriver. If your website relies heavily on JavaScript, ensure that WebDriver handles JavaScript appropriately.
6. Switching to Iframes
If the elements are inside iframes, make sure to switch to the correct iframe using driver.switchTo().frame() before interacting with the elements.
7. Browser Console Logs
Check the browser console logs for any error messages or warnings that might indicate issues with JavaScript or other resources.
System.out.println(driver.manage().logs().get("browser").getAll());
8. CSS Selectors and XPath
Selenium IDE may use different selectors than your WebDriver script. Double-check the selectors (CSS or XPath) used in your WebDriver script.
9. Browser Extensions
Selenium IDE may have browser extensions installed that affect the behavior of the web page. Ensure that WebDriver runs in an environment that mimics the configuration used by Selenium IDE.
10. Headless Mode
If Selenium IDE is running in headless mode, try running your WebDriver script in headless mode as well to replicate the environment.
If the issue persists after considering these points, you may want to inspect the HTML source of the page and compare it with the recorded script in Selenium IDE to identify any differences.
To find an element by its HTML code in Selenium, you can use the ExecuteScript method to execute JavaScript code that returns the element corresponding to the provided HTML code. Here's an example of how to do this using C#:
Install the required NuGet packages:
Install-Package OpenQA.Selenium.Chrome.WebDriver -Version 3.141.0
Install-Package OpenQA.Selenium.Support.UI -Version 3.141.0
Create a method to find an element by its HTML code:
using OpenQA.Selenium;
using OpenQA.Selenium.Support.UI;
using System;
using System.Text.RegularExpressions;
public static IWebElement FindElementByHtml(this IWebDriver driver, string htmlCode)
{
// Execute JavaScript to create a new element with the provided HTML code
var script = $@"var div = document.createElement('div'); div.innerHTML = arguments[0]; document.body.appendChild(div); return div.children[0];";
var element = (IWebElement)driver.ExecuteScript(script, htmlCode);
// Remove the created element from the DOM
driver.ExecuteScript("document.body.removeChild(document.body.children[document.body.children.length - 1]);");
return element;
}
Use the FindElementByHtml method in your test code:
using OpenQA.Selenium;
using System;
namespace SeleniumFindElementByHtmlExample
{
class Program
{
static void Main(string[] args)
{
// Set up the WebDriver
IWebDriver driver = new ChromeDriver();
driver.Manage().Window.Maximize();
// Navigate to the target web page
driver.Navigate().GoToUrl("https://www.example.com");
// Find an element by its HTML code
IWebElement element = driver.FindElementByHtml(@"
Example Heading
Example paragraph text.
");
// Perform any additional actions as needed
// Close the browser
driver.Quit();
}
}
}
In this example, we first create a method called FindElementByHtml that takes an IWebDriver instance and a string containing the HTML code as input. Inside the method, we use the ExecuteScript method to execute JavaScript code that creates a new element with the provided HTML code, appends it to the document body, and returns the created element.
We then remove the created element from the DOM using another ExecuteScript call. The method returns the created element as an IWebElement.
In the test code, we set up the WebDriver, navigate to the target web page, and use the FindElementByHtml method to find an element by its HTML code. After finding the element, you can perform any additional actions as needed.
Remember to replace the HTML code in the FindElementByHtml method call with the actual HTML code you want to use.
To install Selenium WebDriver Chromedriver on Linux using Python, follow these steps:
Install Chromedriver:
First, you need to download the Chromedriver binary for your Linux distribution from the Chromedriver download page. Choose the appropriate version for your Linux distribution (e.g., Ubuntu, Debian, Fedora, etc.) and download the .deb, .rpm, or .tar.gz file.
Install Chromedriver using .deb or .rpm package:
If you downloaded the .deb or .rpm package, you can install it using the following commands:
For .deb package:
sudo dpkg -i chromedriver.deb
For .rpm package:
sudo yum -y install chromedriver.rpm
Install Chromedriver using .tar.gz package:
If you downloaded the .tar.gz package, you can install it using the following commands:
Extract the package:
tar -xvf chromedriver.tar.gz
Move the Chromedriver binary to a desired location (e.g., /usr/local/bin):
sudo mv chromedriver /usr/local/bin/
Set the executable permission for the Chromedriver binary:
sudo chmod +x /usr/local/bin/chromedriver
Verify the installation:
To verify that Chromedriver is installed correctly, you can run the following command in the terminal:
chromedriver --version
This should display the Chromedriver version.
Install Selenium Python package:
Finally, install the Selenium Python package using pip:
pip install selenium
Now you have installed Selenium WebDriver Chromedriver on your Linux system using Python. You can use the following Python code to set up the Chrome WebDriver and start a browser session:
from selenium import webdriver
from selenium.webdriver.chrome.service import Service
from selenium.webdriver.chrome.options import Options
# Set up the Chrome WebDriver
chrome_options = Options()
service = Service('/usr/local/bin/chromedriver')
driver = webdriver.Chrome(service=service, options=chrome_options)
# Navigate to the target web page
driver.get("https://www.example.com")
# Close the browser
driver.quit()
Remember to replace "/usr/local/bin/chromedriver" with the actual path to the Chromedriver binary on your system.
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.
What else…