In a Java application, the parsing of JSON data can take place in different layers depending on the architectural pattern you are following. Here are common layers where JSON parsing can occur:

1. Data Access Layer (DAO):

   • If your application follows a traditional layered architecture, you might perform JSON parsing in the Data Access Layer. In this layer, you can convert JSON data received from external sources (e.g., a RESTful API) into Java objects before persisting them to a database.

2. Service Layer:

   • JSON parsing can also be done in the Service Layer. Services may receive JSON data from various sources and convert it into domain objects or DTOs (Data Transfer Objects) before interacting with the business logic or data access layer.

3. Controller/Endpoint Layer:

   • In a web-based application, such as a Spring MVC or Spring Boot application, JSON parsing is often done in the controllers or endpoints. Incoming JSON requests from clients are converted into Java objects to be processed by the business logic.

4. Model Layer:

   • In some cases, especially when dealing with serialization/deserialization within the application itself, JSON parsing can take place in the Model Layer. For example, converting Java objects to JSON for sending responses to clients or vice versa.

5. External Libraries/Utilities:

   • JSON parsing can also be delegated to external libraries or utility classes. This is common when using libraries like Jackson, Gson, or other JSON processing libraries. These libraries provide convenient methods for converting JSON to Java objects and vice versa.

6. Middleware Layer:

   • In a middleware layer, JSON parsing might occur as part of transforming data between different systems or components. For example, in an ESB (Enterprise Service Bus) scenario where data needs to be transformed from one format to another.

7. Integration Layer:

   • If your application integrates with external services or APIs that exchange data in JSON format, the integration layer might handle JSON parsing to transform the data into a format suitable for internal processing.

The choice of the layer depends on your application's design, the responsibilities of each layer, and the architectural patterns you are following. In modern Java applications, using dedicated JSON processing libraries like Jackson or Gson is a common practice, and the parsing often occurs in the layers that interact with external data sources or clients.

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.

Each option has its own advantages and disadvantages. HTTP is faster because it supports caching. And SOCKS provides better anonymity because it hides the headers of requested pages.

Deactivating the proxy on android is a reverse process. To do this, you will need to go back to the previous settings in the browser, if that is where you set the installation parameters. In the item "Change proxy status", namely in the ProxyDroid app, set the "Off" position.

Regular Windows functionality has a minimum of settings for proxies. Therefore, it is recommended to use third-party applications for this purpose. For example, Proxy Switcher or Proxifier. There you can not only set the server characteristics but also, for example, create a folder for packets of traffic that are transmitted through the local network.