Leveraging RabbitMQ with C# and .NET: A Comprehensive Guide

In today's interconnected world, efficient data transfer between applications is crucial for smooth operations. Whether it's processing large volumes of requests or orchestrating tasks across distributed systems, having a reliable message broker is essential. RabbitMQ, an open-source message broker, provides a robust solution for building scalable and decoupled applications.

Introduction

This comprehensive guide will explore leveraging RabbitMQ with C# and .NET to build resilient and flexible messaging systems. From installation to advanced message routing techniques, we'll cover everything you need to know to get started with RabbitMQ.

Overview of RabbitMQ

RabbitMQ is a powerful message broker that facilitates communication between different components of an application. It implements the Advanced Message Queuing Protocol (AMQP), providing a standardized way for applications to exchange messages. With RabbitMQ, you can decouple your application components, making them more resilient to failures and more accessible to scale.

Why RabbitMQ?

  • Cross-platform Compatibility: RabbitMQ runs on multiple platforms, including Windows and Linux, making it suitable for various environments.
  • Language Agnostic: It supports multiple programming languages, allowing you to build applications in your language of choice.
  • Persistence Options: RabbitMQ offers in-memory and disk-based message storage options, giving you flexibility in managing message durability.
  • Scalability: With support for clustering and high availability, RabbitMQ can handle large volumes of messages and scale horizontally as your application grows.

Installation and Setup

Step 1: Installing Erlang Runtime and RabbitMQ Server

Before using RabbitMQ, we need to install the Erlang runtime and RabbitMQ server. Follow these steps to install RabbitMQ on your system:

  1. Download the latest Erlang runtime from erlang.org and install it on your machine.
  2. Download the latest RabbitMQ server release from rabbitmq.com and unzip the folder to a location on your hard drive. alt text
  3. Set the ERLANG_HOME environment variable to the Erlang installation directory. For example:
    setx ERLANG_HOME "C:\Program Files\erl10.6"
     
  4. Install RabbitMQ as a Windows service by running the following commands in a console:
    rabbitmq-service /install
    rabbitmq-service /enable
    rabbitmq-service /start
     

Step 2: Configuring RabbitMQ

After installing RabbitMQ, you can use the rabbitmqctl command-line tool to manage the server. Start by ensuring that the server is running:

rabbitmqctl status
 

You can secure your RabbitMQ instance by creating a new user with limited permissions and removing the default guest user:

rabbitmqctl add_user myuser mypassword
rabbitmqctl set_permissions myuser ".*" ".*" ".*"
rabbitmqctl delete_user guest
 

Working with RabbitMQ in .NET

Let's integrate RabbitMQ with our .NET applications using the RabbitMQ .NET client library and C#.

Setting up RabbitMQ Connection

To establish a connection to RabbitMQ from a .NET application, we'll need to configure a connection factory:

var connectionFactory = new ConnectionFactory
{
    HostName = "localhost",
    UserName = "myuser",
    Password = "mypassword"
};

using (var connection = connectionFactory.CreateConnection())
{
    // Create and configure channel
}
 

Working with Exchanges and Queues

RabbitMQ uses exchanges and queues to route messages between producers and consumers. Let's create an exchange and a queue and bind them together:

using (var model = connection.CreateModel())
{
    // Declare exchange
    model.ExchangeDeclare("MyExchange", ExchangeType.Fanout, true);
    
    // Declare queue
    model.QueueDeclare("MyQueue", true);
    
    // Bind queue to exchange
    model.QueueBind("MyQueue", "MyExchange", "", false, null);
}
 

Publishing and Consuming Messages

Now that we have our exchange and queue set up, let's publish a message to the exchange and consume it from the queue:

// Publish message
string message = "Hello, RabbitMQ!";
var body = Encoding.UTF8.GetBytes(message);
model.BasicPublish("MyExchange", "", null, body);

// Consume message
var consumer = new EventingBasicConsumer(model);
consumer.Received += (sender, args) =>
{
    var messageBody = Encoding.UTF8.GetString(args.Body.ToArray());
    Console.WriteLine($"Received message: {messageBody}");
};
model.BasicConsume("MyQueue", true, consumer);
 

Performance Considerations

RabbitMQ offers impressive performance, even under heavy loads. By optimizing message delivery and consumption, you can achieve high throughput and low latency. You can experiment with different configurations and message persistence options to find the best setup for your use case.

Conclusion

In this guide, we've explored the fundamentals of RabbitMQ and demonstrated how to integrate it with C# and .NET applications. By leveraging RabbitMQ's powerful features, you can build robust and scalable messaging systems that meet the needs of your application. You can experiment with different exchange types, message routing strategies, and deployment configurations to unlock the full potential of RabbitMQ in your projects.

 

Understanding Microservices: A Comprehensive Guide

 

Mastering Redux: Unveiling the Power of Redux DevTools

Introduction

In our journey with Redux, we’ve traversed the landscape of state management, but there’s a tool that can elevate our development experience—Redux DevTools. This powerful extension provides a window into the heart of your application’s state, making debugging and exploration seamless.

Installing Redux DevTools

Let’s start by installing Redux DevTools in Google Chrome. Go to the Chrome Web Store and search “redux extension chrome.” Add the extension to Chrome. Once added, you’ll notice a new icon in your toolbar, signifying the Redux DevTools.

Redux DevTools

Now, let’s integrate it into our Redux setup.

Connecting Redux DevTools to Your App

Open your store.js file and enhance your createStore function. Add the following line:

window.__REDUX_DEVTOOLS_EXTENSION__ && window.__REDUX_DEVTOOLS_EXTENSION__()

This line connects your app to the Redux DevTools extension.

// store.js
const store = createStore(persistedReducer, window.__REDUX_DEVTOOLS_EXTENSION__ && window.__REDUX_DEVTOOLS_EXTENSION__());

Exploring Redux DevTools

Run your application  npm run dev and refresh your page. The Redux DevTools extension icon in your toolbar should light up. Click on it to unveil a suite of tools.

1. State Tab

Navigate to the “State” tab to see the entire store’s state at any moment. This is immensely helpful for understanding your application’s state without relying solely on components.

2. Actions Tab

On the left, explore the “Actions” tab to track all actions triggered in your application. It shows when an action was dispatched, the changes it caused in the state, and the state after the action.

3. Dispatcher

For more control, utilize the “Dispatcher” at the bottom. This tool lets you trigger Redux actions with specific properties. For example, you can test your reducers by dispatching actions directly from the DevTools.

Advanced Features

Click “Inspect” in the DevTools to open a larger version in its tab. This offers an in-depth exploration of your Redux state.

Conclusion

Redux DevTools is your companion in the development journey. It provides insights, control, and a deeper understanding of your application’s state. Empower your React Redux development with this invaluable tool.

Happy coding! 🚀

Redux Magic: Transforming Your React App into a State Management Marvel

Introduction

Welcome to the enchanting world of Redux, where state management becomes a breeze! In this guide, we’ll delve into the wizardry of adding Redux to your React app, demystifying the process step by step.

Why do you need Redux?

Before delving into the mechanics of Redux, let’s address the crucial question: why do we need it in the first place?

Managing state in React applications poses challenges, from props drilling to deciding on the best structure. Redux emerges as a solution to this dilemma. It tackles the state management problem by offering a structured, organized, and scalable approach.

  1. Props Drilling: Having a single central state contained by the root component results in an undesirable practice known as props drilling. This involves passing props through multiple components, leading to an unattractive code structure and potential troubleshooting headaches.

  2. Global State Chaos: Conversely, using an unrestricted global state leads to chaos. Developers need rules to maintain consistency in state modifications, resulting in hard-to-reproduce bugs.

  3. Sharing State: Managing state when components are far apart becomes challenging. Hoisting the state to a common parent component may seem like a solution, but it often needs clarification about where to find the state for a specific component.

Redux aims to solve these issues by introducing a global state with strict rules and organization.

How does Redux work?

Now that we understand the problems Redux addresses let’s explore how it works:

  1. Global State (Redux Store): Redux introduces a central, global state known as the store. This store is a JSON object serving as the single source of truth for all components.

  2. Redux Actions: Actions are JSON objects defining different events in the application. Each action has a type (a string naming the action) and a payload (additional data). Actions explicitly define events like user data loaded or item added to the cart.

  3. Reducers: Reducers specify how the Redux store should change when an action occurs. They define the allowed changes to the state. For example, when a user data loaded action occurs, a reducer updates the user property in the store.

This structured approach enforces a unidirectional data flow: UI triggers an action, the action is reduced to update the state, and components get read-only access to the updated state.

In conclusion, Redux provides a disciplined and organized way to manage state in React applications, addressing the challenges associated with props drilling, global state chaos, and state sharing. Incorporating Redux leads to more maintainable and scalable React applications.

Installing Redux

We’ll install the Redux and React-Redux packages to kick off our journey. Just a simple command in your terminal:

npm install redux react-redux

With this magic spell, Redux makes its grand entrance into your project.

Conjuring the Redux Store

Next, we create a mystical file named store.js where the essence of our Redux store takes shape. This file serves as the foundation for our state management saga. We’ll start with the basics, importing createStore and combineReducers from Redux, and crafting an empty realm of reducers.

 
// store.js
import { createStore, combineReducers } from 'redux';

const reducers = {}; // The magical realm of reducers

const rootReducer = combineReducers(reducers);

export const configureStore = () => createStore(rootReducer);

Unleashing the Provider

In the grand hall of index.js, the Redux Provider takes center stage. This is where your entire app gets wrapped in the power of Redux. We import the Provider and our configureStore function, then seamlessly integrate them into the ReactDOM.render function.

 
// index.js
import React from 'react';
import ReactDOM from 'react-dom';
import { Provider } from 'react-redux';
import { configureStore } from './store';
import App from './App'; // Replace with your main component

ReactDOM.render(
  <Provider store={configureStore()}>
    <App />
  </Provider>,
  document.getElementById('root')
);

Now that we’ve laid the groundwork for Redux in your React app, it’s time to delve into the art of crafting actions and reducers. Brace yourself for a journey into the heart of state management magic!

Creating Actions

Actions are the spells that trigger changes in your application’s state. Let’s define them with JSON objects, encapsulating the event and any accompanying data. Consider the following examples:

 
// actions.js
export const userLoggedIn = (userData) => ({
  type: 'USER_LOGGED_IN',
  payload: userData,
});

export const addItemToCart = (itemId) => ({
  type: 'ADD_ITEM_TO_CART',
  payload: itemId,
});

Here, userLoggedIn and addItemToCart are our magical actions. They define events - a user logging in and an item added to the cart.

Crafting Reducers

Reducers are wise sorcerers who interpret actions and transform the state accordingly. Each reducer is responsible for a specific slice of your application’s state. Let’s create a reducer for our USER_LOGGED_IN and ADD_ITEM_TO_CART actions:

 
// reducers.js
const userReducer = (state = {}, action) => {
  switch (action.type) {
    case 'USER_LOGGED_IN':
      return { ...state, user: action.payload };
    default:
      return state;
  }
};

const cartReducer = (state = [], action) => {
  switch (action.type) {
    case 'ADD_ITEM_TO_CART':
      return [...state, action.payload];
    default:
      return state;
  }
};

export { userReducer, cartReducer };

In this spellbook, userReducer manages the user-related state, and cartReducer handles the shopping cart.

Conjuring the Root Reducer

To unite our reducers into a single, formidable force, we use the combineReducers spell. In our store.js:

 
// store.js
import { createStore, combineReducers } from 'redux';
import { userReducer, cartReducer } from './reducers';

const rootReducer = combineReducers({
  user: userReducer,
  cart: cartReducer,
});

export const configureStore = () => createStore(rootReducer);

Tying it All Together

Now, let’s update our index.js to accommodate these new magical elements:

 
// index.js
import React from 'react';
import ReactDOM from 'react-dom';
import { Provider } from 'react-redux';
import { configureStore } from './store';
import App from './App';

ReactDOM.render(
  <Provider store={configureStore()}>
    <App />
  </Provider>,
  document.getElementById('root')
);

With these spells in place, actions will flow, and reducers will weave their magic to transform your React app’s state.

The stage is set for your React app’s transformation into a state management marvel.

Effortless Development: Hot Reloading in React with react-hot-loader

Introduction:
As we delve into the intricate world of React development, we encounter a common inconvenience – the need to manually refresh our browsers every time a code change is made. While this may seem like a minor hiccup, it disrupts the development flow. Fear not, for there’s a simple solution: introducing react-hot-loader. This tool revolutionizes the development experience, allowing us to witness real-time changes without the hassle of constant browser refreshes.

Installing react-hot-loader:
To embark on this journey of seamless development, let’s begin by installing react-hot-loader. Open your terminal in the project directory and run:

npm install --save-dev react-hot-loader

This quick installation paves the way for a more fluid development process.

Implementing Hot Reloading:
Now, let’s integrate react-hot-loader it into our React app. Open the app.js file and follow these simple steps. At the top, import the hot function from react-hot-loader:

import { hot } from 'react-hot-loader';

Then, modify the export statement at the bottom of the file:

export default hot(module)(App);

This elegant addition ensures that any changes made to our app reflect instantly without needing manual browser refresh.

Streamlining the Development Workflow:
To further enhance our workflow, let’s create an npm script for running the development server effortlessly. Open your package.json file and add the following script:

"scripts": {
  "dev": "npx webpack-dev-server --mode development",
  ...
}

Now, running npm run dev in the terminal initiates the webpack dev server, building and serving our app dynamically.

Understanding the Magic Behind the Scenes:
While the webpack dev server is running, you may notice the absence of the expected dist folder. This is by design – webpack dev server holds the dist folder in memory, serving it dynamically and discarding it upon shutdown.

Building the React App: 
We can create a build script for scenarios where you want to generate the 

 folder physically. Update the scripts section in package.json:

"scripts": {
  "build": "npx webpack --mode development",
  ...
}

Executing npm run build compiles our React app, producing the dist folder with all the transpiled code.

Conclusion:
With react-hot-loader seamlessly integrated into our React development environment, the days of manual browser refreshes are behind us. Real-time updates and a streamlined workflow empower us to focus on what truly matters – crafting exceptional React applications. Embrace the efficiency, embrace the future of React development!

 

Mastering Webpack: Building and Serving Your React App with Ease

Introduction:
Now that our React app is set up with the essentials, it’s time to dive into the world of Webpack. In this section, we’ll demystify the process of configuring Webpack to not only build our app but also to serve it, making our development workflow smoother. Though Webpack configuration might seem daunting at first, fear not – we’ll break it down step by step.

Installing Necessary Packages:
Before we commence with the Webpack setup, let’s install the packages we need. Open your terminal in the project directory and run:

npm install --save-dev webpack webpack-cli webpack-dev-server style-loader css-loader babel-loader

This might take a moment, but once installed, these packages will empower Webpack to perform various operations on our source code.

Creating the Webpack Configuration File:
Now, let’s create the heart of our Webpack setup – the configuration file. Create a file in your base directory named webpack.config.js and follow along with the code:

// webpack.config.js
const path = require('path');
const webpack = require('webpack');

module.exports = {
  entry: './src/index.js',
  mode: 'development',
  module: {
    rules: [
      {
        test: /\.(js|jsx)$/,
        exclude: /node_modules/,
        loader: 'babel-loader',
        options: {
          presets: ['@babel/env'],
        },
      },
      {
        test: /\.css$/,
        use: ['style-loader', 'css-loader'],
      },
    ],
  },
  resolve: {
    extensions: ['*', '.js', '.jsx'],
  },
  output: {
    path: path.resolve(__dirname, 'dist/'),
    publicPath: '/dist/',
    filename: 'bundle.js',
  },
  devServer: {
    contentBase: path.join(__dirname, 'public/'),
    port: 3000,
    publicPath: 'http://localhost:3000/dist/',
    hotOnly: true,
  },
  plugins: [new webpack.HotModuleReplacementPlugin()],
};

This configuration file defines how Webpack should handle our source code, from transforming ES6 syntax to hosting our app on a local server.

Building and Serving the React App:
With our configuration in place, it’s time to see our app in action. Run the following command in your terminal:

npx webpack-dev-server --mode development

In case you encounter an error, make sure to check for typos, especially in the publicPath. Once successfully executed, open your browser and navigate to http://localhost:3000. Voilà! You should witness the React app we’ve been crafting.

Conclusion:
Congratulations! You’ve conquered the Webpack setup. This powerful tool is now at your disposal, streamlining the development process for your React application. As we move forward, we’ll explore more advanced features and optimizations to take your React development skills to new heights. Get ready for an exciting journey into the heart of modern web development!

Building Your First React App: Understanding Index.js and App Component

Introduction: 

Congratulations on making it through the setup phase! Now that we’ve established support for ES6 and React syntax, it’s time to delve into the core of our React application. In this section, we’ll focus on two crucial files: index.js and App.js. These files play pivotal roles in rendering our React components and defining the root structure of our application.

Creating the Files: 

To kick things off, we’ll create three essential files within our src folder: index.jsApp.js, and App.css. In this step, we’ll concentrate on index.js, which serves as the entry point for inserting our React app into the index.html page.

// index.js
import React from 'react';
import ReactDOM from 'react-dom';
import App from './App.js';

ReactDOM.render(<App />, document.getElementById('root'));

This code snippet sets the stage for rendering our App component into the HTML element with the ID of ‘root’.

Writing the App Component: 

Moving on to App.js, we’ll define our root component. This is where we import React, link our CSS file, and create a simple functional component.

// App.js
import React from 'react';
import './App.css';

const App = () => {
  return (
    <div className="App">
      <h1>Hello, World!</h1>
    </div>
  );
};

export default App;

Here, we’re introducing a basic structure with styling that we’ll later customize.

Basic Styling with App.css: 

Our styling needs are modest for now. In App.css, we add some basic styles to make our application visually appealing.

/* App.css */
.App {
  margin: 1rem;
  font-family: 'Arial', 'Helvetica', sans-serif;
  color: #222222;
}

These styles provide a clean and straightforward look to our React app.

Preparing for Development: 

Before we witness our app in action, we need to install React and ReactDOM. Run the following command in your terminal:

npm install react react-dom

Conclusion: 

We’ve successfully set the foundation for our React app. The index.js file orchestrates the rendering process, and the App.js file defines the root component with basic styling. In the upcoming sections, we’ll explore how to leverage Webpack to build and serve our project, bringing our React application to life. Stay tuned for an exciting journey into the heart of React development!

Enabling ES6 Support and JSX in Your React Project

Introduction:

As we embark on the journey of developing our React application, we've decided to leverage the power of ES6 syntax for a more modern and expressive codebase. To make this transition smoother and to seamlessly incorporate React's JSX syntax, we need to establish support for ES6 in our project.

Step 1: Install Babel Packages:

Our first step is to open the terminal within our project directory. Here, we'll run the following command to install essential Babel packages:

npm install --save-dev @babel/core @babel/cli @babel/preset-env @babel/preset-react

This command installs the core Babel functionalities, CLI tools, and the presets needed for handling ES6 and JSX transformations. The process might take a moment, so be patient.

Step 2: Create .babelrc Configuration File:

Once the installation is complete, the next crucial step is to create a .babelrc file in the root of our project. Please make sure the file is correctly named with the dot preceding it. This file serves as the configuration guide for Babel.

.babelrc File Content:

Inside the .babelrc file, define a JSON object with a "presets" property, which is an array containing two strings:

{  "presets": ["@babel/preset-env", "@babel/preset-react"] }

 

- @babel/preset-env: Handles the transformation of ES6 into common JS.

- @babel/preset-react: Manages JSX transformations.

While many modern browsers now support ES6 syntax natively, configuring Babel provides compatibility across different environments.

Conclusion:

We've successfully laid the groundwork for ES6 and JSX support in our React project. The installation of Babel packages and the creation of the .babelrc file pave the way for seamless code transpilation. In upcoming sections, we'll explore how Babel utilizes these presets to transform our code into a browser-executable format.

By embracing ES6 and JSX, we align with modern JavaScript practices and enhance the readability and maintainability of our React code. Stay tuned for the next steps in our journey to a robust React application!

Exploring NDepend v2023.2: Unraveling the Latest Features

Introduction:

For .NET developers and software quality enthusiasts, NDepend is an indispensable tool. NDepend v2023.2 introduces an array of new features that promise to streamline your development process and enhance the quality of your code. In this comprehensive article, we'll delve into the latest updates and enhancements.

Full .NET 8.0 Support:

  • With .NET 8.0's release, NDepend ensures seamless compatibility.
  • Analyze .NET 8 code quickly, covering project types like ASP.NET Core, Windows Desktop, Blazor, and Console applications.
  • Your .NET 8.0 projects are now within NDepend's scope for analysis.

C# 12 Support and Parsing Improvements:

  • NDepend v2023.2 embraces the new features of C# 12, including primary constructors for classes and inline arrays.
  • Achieve 100% resolution of code element declarations in your source code, from fields and enumeration values to abstract methods and more.
  • Source declaration line enhancements clarify your code, making issue identification more straightforward.

Performance Enhancements:

  • Say hello to a faster analysis process. NDepend v2023.2 reduces report generation time by a staggering 40%.
  • Even for extensive code bases with thousands of source files and millions of lines of code, report generation is now a matter of seconds.
  • NDependReport.html file sizes are halved thanks to new optimizations, ranging from one to 5MB. Sharing and usability have never been more convenient.

UI Enhancements:

  • The user interface receives significant improvements.

  • Loading code base snapshots with the baseline snapshot is now parallelized, resulting in a 40% reduction in loading time.

  • Lazy initialization of panels makes the UI instantly responsive once snapshots are loaded.

  • In Project Properties, the "Code to Analyze" panel now resolves all assemblies 41% faster.

    NDepend Dashboard
    Dashboard

    NDepend Report Dashboard
    NDepend Report Dashboard

    NDepend_2023_Report_Abstractness versus Instability Diagram
    NDepend Report - Abstractness versus Instability Diagram

Customizable Issue Explanations:

  • NDepend v2023.2 empowers users to define patterns for issue explanations.
  • This customization enables tailored issue explanations to meet specific project needs, enhancing insights into the codebase.
  • Issue explanations are integrated into the NDepend UI and source code views in reports, providing an in-depth understanding. 

    NDepend_2023_Report_Issues Improvement

Fewer False Positives:

  • Reducing false positives remains a top priority for NDepend.
  • In this release, various rules have been refined to minimize false positive issues, allowing developers to focus on genuine code quality concerns.

Conclusion: NDepend v2023.2 emerges as a powerhouse tool for .NET developers. With complete .NET 8.0 support, compatibility with C# 12, and substantial performance enhancements, it becomes a valuable asset for your toolkit. The UI improvements and customizable issue explanations elevate the code analysis experience. Bid farewell to false positives and embrace an accurate analysis.

In a world where software quality is non-negotiable, NDepend v2023.2 is necessary to ensure your .NET projects shine.

Final Thoughts: NDepend v2023.2 continues its commitment to delivering an exceptional code analysis experience. Its ability to adapt to the latest .NET technologies and enhanced performance makes it a crucial tool for any .NET developer. Dive into NDepend v2023.2 and watch your codebase reach new heights of quality and maintainability.

Securing .NET Web Applications with Authentication: Harnessing the Power of Social Media Provider Authentication

Introduction:

In today's interconnected world, users expect a seamless and secure login experience on websites and applications. Social media provider authentication, such as Google Authentication, offers a convenient and trusted way for users to access your application using their existing social media accounts. In this tutorial, we'll explore how to integrate Google Authentication into your ASP.NET Core application step by step.

Prerequisites:

Before we dive into the implementation, make sure you have the following:

  1. Visual Studio or Visual Studio Code installed on your system.
  2. An ASP.NET Core web application project was created.

Step 1: Install the Required NuGet Package

The first step is to install the Microsoft.AspNetCore.Authentication.Google NuGet package into your ASP.NET Core project. This package provides the necessary tools for integrating Google Authentication.

Open the NuGet Package Manager in Visual Studio, search for Microsoft.AspNetCore.Authentication.Google, and install the latest stable version.

Install-Package Microsoft.AspNetCore.Authentication.Google
 

Step 2: Configure Google Authentication

To enable Google Authentication in your application, you need to set up the necessary credentials on the Google Developer Console. Follow these steps:

  1. Navigate to the Google Developer Console.

  2. Create a new project or select an existing one.

  3. Set up the consent screen by providing the required information, including the application name, support email, and domain.




     

  4. Add authorized JavaScript origins and redirect URIs for your application. Make sure to include both the development and production URLs.

  5. Under the "Scopes" section, add the necessary scopes, such as emailprofile, and openid.1 

  6. Save your changes and publish the app.

  7. Create OAuth 2.0 credentials by going to "Credentials" and selecting "Create credentials" > "OAuth client ID." Choose the application type as "Web application" and configure the redirect URIs.

  8. After creating the OAuth client ID, note down the "Client ID" and "Client Secret" values.

     

Step 3: Configure Your ASP.NET Core Application

Now, let's configure your ASP.NET Core application to use Google Authentication. Open your appsettings.json file and add the Google Authentication settings:

{
  "Authentication": {
    "Google": {
      "ClientId": "YOUR_CLIENT_ID",
      "ClientSecret": "YOUR_CLIENT_SECRET"
    }
  },
  // Other application settings...
}
 

Replace "YOUR_CLIENT_ID" and "YOUR_CLIENT_SECRET" with the values you obtained from the Google Developer Console.

Step 4: Enable Google Authentication in Your App

In your ASP.NET Core application, navigate to the Program.cs file. Inside the CreateHostBuilder method, add the following code to enable Google Authentication:

builder.Services.AddAuthentication()
    .AddGoogle(options =>
    {
        options.ClientId = Configuration["Authentication:Google:ClientId"];
        options.ClientSecret = Configuration["Authentication:Google:ClientSecret"];
    });
 

This code configures the authentication services to use Google Authentication and sets the client ID and client secret from your appsettings.json file.

Step 5: Run Your Application

With Google Authentication configured, you can start your ASP.NET Core application. You should now see the "Use other services to log in" option on your login page, with Google as one of the available choices.

Click the "Google" button, and a popup will appear, prompting you to sign in with your Google account. After signing in, you'll be redirected back to your application, logged in, and authenticated via Google.

Conclusion:

Integrating Google Authentication into your ASP.NET Core application provides users with a convenient and secure way to access your services without creating additional accounts. This enhances the user experience and can boost user engagement on your platform.