IP | Country | PORT | ADDED |
---|---|---|---|
97.74.87.226 | sg | 80 | 9 minutes ago |
74.119.144.60 | us | 4145 | 9 minutes ago |
116.202.113.187 | de | 60458 | 9 minutes ago |
154.16.146.48 | us | 80 | 9 minutes ago |
41.230.216.70 | tn | 80 | 9 minutes ago |
89.145.162.81 | de | 3128 | 9 minutes ago |
202.85.222.115 | cn | 18081 | 9 minutes ago |
125.228.143.207 | tw | 4145 | 9 minutes ago |
194.219.134.234 | gr | 80 | 9 minutes ago |
212.69.125.33 | ru | 80 | 9 minutes ago |
158.255.77.169 | ae | 80 | 9 minutes ago |
213.143.113.82 | at | 80 | 9 minutes ago |
62.99.138.162 | at | 80 | 9 minutes ago |
82.119.96.254 | sk | 80 | 9 minutes ago |
83.1.176.118 | pl | 80 | 9 minutes ago |
203.99.240.182 | jp | 80 | 9 minutes ago |
116.202.113.187 | de | 60498 | 9 minutes ago |
85.8.68.2 | de | 80 | 9 minutes ago |
158.255.77.166 | ae | 80 | 9 minutes ago |
190.58.248.86 | tt | 80 | 9 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.
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And 500+ more programming tools and languages
In Swift 4 and later, the Decodable protocol provides a convenient way to parse JSON data into Swift objects. Here's an example demonstrating how to use the Decodable protocol to parse JSON in Swift:
Assuming you have the following JSON data:
{
"name": "John Doe",
"age": 30,
"city": "New York"
}
And you want to create a Swift struct to represent this data:
import Foundation
// Define a struct conforming to Decodable
struct Person: Decodable {
let name: String
let age: Int
let city: String
}
// JSON data
let jsonData = """
{
"name": "John Doe",
"age": 30,
"city": "New York"
}
""".data(using: .utf8)!
// Use JSONDecoder to decode JSON data into a Person object
do {
let person = try JSONDecoder().decode(Person.self, from: jsonData)
print("Name: \(person.name)")
print("Age: \(person.age)")
print("City: \(person.city)")
} catch {
print("Error decoding JSON: \(error)")
}
In this example:
Person
struct that conforms to the Decodable
protocol. The struct's properties match the keys in the JSON data.Data
using data(using:)
.JSONDecoder
to decode the JSON data into an instance of the Person
struct.Ensure that the keys in your Swift struct match the keys in your JSON data, and the data types match accordingly. The JSONDecoder
automatically maps the JSON data to the struct based on the property names.
This example assumes a simple JSON structure. If your JSON structure is more complex, you may need to define additional structs conforming to Decodable
to represent nested structures.
Selenium WebDriver primarily supports locating elements using a variety of locator strategies such as ID, class name, tag name, name, xpath, and CSS selector. However, jQuery locators are not directly supported in Selenium WebDriver by default.
If you want to use jQuery selectors to locate elements, you have a few options
1. Execute jQuery Commands with JavaScript
You can execute JavaScript code, including jQuery, using the execute_script method in Selenium WebDriver. This allows you to leverage jQuery selectors to find elements.
from selenium import webdriver
driver = webdriver.Chrome()
driver.get("https://example.com")
# Example: Using jQuery to find an element by class name
element = driver.execute_script("return $('.your-class-name')[0];")
# Interact with the element
element.click()
driver.quit()
In this example, replace $('.your-class-name')[0]; with your actual jQuery selector.
2. Use WebDriver's Built-in Locators
In most cases, you can achieve the same result using Selenium WebDriver's built-in locator strategies without relying on jQuery. For example, to locate an element by class name:
from selenium import webdriver
driver = webdriver.Chrome()
driver.get("https://example.com")
# Example: Using WebDriver's built-in class name locator
element = driver.find_element_by_class_name("your-class-name")
# Interact with the element
element.click()
driver.quit()
Use CSS selectors, XPath, or other supported locators based on your specific needs.
Using the built-in WebDriver locators is generally recommended as it avoids the need to include jQuery and simplifies your code. However, if you have a specific reason to use jQuery, you can resort to executing JavaScript code as demonstrated in the first option.
In Qt, you can use the QUdpSocket class to handle incoming UDP packets and the QDataStream class to parse the QByteArray into a bitfield structure. Here's an example of how to accept and parse a UDP QByteArray into a bitfield structure in Qt:
1. First, create a structure to represent the bitfield:
struct Bitfield {
unsigned int field1 : 8;
unsigned int field2 : 8;
unsigned int field3 : 8;
unsigned int field4 : 8;
};
2. Next, create a QUdpSocket object and bind it to a specific port:
QUdpSocket udpSocket;
if (!udpSocket.bind(QHostAddress::Any, 12345)) {
qDebug() << "Failed to bind UDP socket:" << udpSocket.errorString();
return;
}
3. In the readyRead() slot, accept incoming UDP packets and parse the QByteArray:
void MyClass::handleIncomingDatagram() {
QByteArray datagram = udpSocket.receiveDatagram();
QDataStream dataStream(&datagram, QIODevice::ReadOnly);
Bitfield bitfield;
dataStream >> bitfield;
// Process the bitfield structure as needed
qDebug() << "Received bitfield:" << bitfield.field1 << "," << bitfield.field2 << "," << bitfield.field3 << "," << bitfield.field4;
}
4. Finally, connect the readyRead() signal to the handleIncomingDatagram() slot:
connect(&udpSocket, &QUdpSocket::readyRead, this, &MyClass::handleIncomingDatagram);
In this example, the handleIncomingDatagram() slot is called whenever a new UDP packet is received. The slot accepts the incoming datagram, parses it into a bitfield structure using QDataStream, and processes the bitfield as needed.
Make sure to include the necessary headers in your code:
#include
#include
#include
#include
This example assumes that the incoming UDP packet contains exactly 4 bytes, which is enough to store the bitfield structure. If the packet contains more data, you'll need to handle it accordingly.
The main scenarios for using a proxy server: bypassing blocking, hiding the real IP, protection of confidential data when connecting to public WiFi access points, interaction with blocked applications, connection to closed portals, forums (which operate only in one country, region).
Click on the globe icon (settings panel) and open the IPoE tab. On the page that opens, select "ISP Broadband Connection". Switch the "Configure IP Settings" to "Manual" mode. After that, fill in the appropriate fields and press the "Apply" button. In the menu, under "Home network", find the "Computers" item and by clicking on the tab IPMP Proxy, uncheck the appropriate checkbox. Now find the "Components" item, install and activate the Proxy UDP HTTP utility and then update it. The next step is to click on "Home Network-Computers". In the window that appears, make the checkbox "Enable UPDXY server" active and enter the values required by the program. Then, after selecting the Broadband Connection as the communication channel, click on the "Apply" button.
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