What is Blazor?

Blazor is a modern web framework developed by Microsoft that allows developers to build interactive, client-side web applications using C# instead of JavaScript. The name “Blazor” is a combination of “Browser” and “Razor” (the templating engine used in ASP.NET Core). Blazor is part of the ASP.NET Core ecosystem and can run in the browser via WebAssembly or on the server, making it a versatile solution for modern web application development.

Blazor allows developers to leverage their existing C# and .NET skills to write client-side code directly, providing a seamless experience for full-stack developers. Blazor applications are highly interactive and can be used to create single-page applications (SPA) or progressive web apps (PWA), providing a similar experience to JavaScript-based frameworks like React or Angular.

Blazor uses WebAssembly to run .NET code in the browser, or it can run on the server using SignalR for real-time communication with the client-side.

Key Features of Blazor:

1. C# in the Browser: Developers can write client-side code using C# and Razor instead of JavaScript.
2. WebAssembly: Blazor WebAssembly allows .NET applications to run directly in the browser without needing a server round-trip.
3. Two Hosting Models: Blazor offers two modes—Blazor WebAssembly (client-side) and Blazor Server (server-side).
4. Reusability: Blazor enables the reusability of .NET libraries across both the client and server, ensuring consistency in logic.
5. Component-based: Blazor uses a component-based architecture, where UI elements and logic are encapsulated in reusable components.

What Are the Major Use Cases of Blazor?

Blazor is gaining popularity due to its flexibility, allowing developers to build various types of web applications. Below are the major use cases of Blazor:

1. Web Application Development:

• Use Case: Blazor is used for building full-fledged web applications where the frontend and backend can both be written in C#.
• Example: Developers can use Blazor to create admin dashboards, e-commerce websites, or enterprise applications without needing JavaScript.
• Why Blazor? The ability to use C# for both frontend and backend code simplifies development, particularly for teams already familiar with the .NET ecosystem.

2. Single-Page Applications (SPAs):

• Use Case: Blazor is ideal for building single-page applications (SPAs), which allow dynamic content loading without reloading the entire page.
• Example: A task management tool where users can add, delete, and edit tasks without refreshing the page.
• Why Blazor? It provides a responsive, interactive user experience by leveraging WebAssembly and client-side C# code execution.

3. Progressive Web Apps (PWAs):

• Use Case: Blazor allows developers to build progressive web apps that work offline and provide native-like experiences on the web.
• Example: Offline-capable apps like note-taking or calendar applications, which can work without an internet connection.
• Why Blazor? Blazor’s WebAssembly allows for native-like performance in the browser, making it a great choice for building PWAs.

4. Cross-Platform Development:

• Use Case: With Blazor, developers can build web applications that run across different platforms, such as Windows, macOS, and Linux, with minimal code changes.
• Example: A cross-platform data visualization app where the same application logic runs in the browser on various operating systems.
• Why Blazor? As WebAssembly runs in modern browsers across operating systems, Blazor applications are platform-independent.

5. Enterprise Applications:

• Use Case: Blazor is well-suited for enterprise applications that require high scalability, maintainability, and integration with other Microsoft technologies.
• Example: An enterprise-grade financial management tool that integrates with SQL Server, Azure, and other Microsoft services.
• Why Blazor? Blazor seamlessly integrates with ASP.NET Core, Entity Framework, and Azure, making it a great choice for enterprise solutions.

6. Real-time Applications (Blazor Server):

• Use Case: Blazor Server is useful for building real-time applications that require immediate updates, such as chat applications, collaborative tools, or live dashboards.
• Example: A real-time stock price monitoring dashboard that shows live updates based on the stock market.
• Why Blazor Server? Blazor Server uses SignalR to establish a persistent connection between the client and the server for real-time updates.

How Blazor Works Along with Architecture?

Blazor can operate using two main architectures: Blazor WebAssembly (client-side) and Blazor Server (server-side). Let’s explore how both architectures work and how Blazor functions within these contexts.

1. Blazor WebAssembly (Client-Side) Architecture:

• WebAssembly is a low-level assembly language that runs in modern browsers, enabling high-performance web applications. With Blazor WebAssembly, C# code is compiled into WebAssembly and executed directly in the browser.
• Process Flow:
  1. Compilation: C# code is compiled into WebAssembly (WASM) binary format.
  2. Execution: The WebAssembly runtime in the browser executes the C# code, running the Blazor app entirely on the client side.
  3. Interaction: UI updates and interactions are handled by Blazor’s component system, which communicates directly with the browser without the need for server communication (except for backend APIs).
• Advantages of Blazor WebAssembly:
  • Client-side execution: No need to rely on server requests for rendering UI updates.
  • Offline support: Applications can run offline once loaded into the browser.
  • Rich Interactivity: Provides rich, interactive experiences for web applications.

2. Blazor Server Architecture:

• Blazor Server works by maintaining a connection between the client and server using SignalR (a real-time communication library). In this architecture, the UI rendering occurs on the server, and only the UI updates are sent to the browser over a persistent connection.
• Process Flow:
  1. SignalR Connection: The client establishes a persistent SignalR connection with the server.
  2. UI Rendering: All UI components are executed on the server, and the results (UI updates) are sent to the browser over the SignalR connection.
  3. Interaction: When a user interacts with the UI (e.g., clicks a button or enters text), the events are sent back to the server to process and update the UI, which then updates the client-side.
• Advantages of Blazor Server:
  • Smaller Application Size: Only the UI updates are sent over the network, making it suitable for lower-bandwidth scenarios.
  • Real-time Communication: Best for applications that require real-time updates.
  • Centralized Logic: The application’s logic and state are stored on the server, simplifying management.

3. Common Components and Lifecycle:

• Blazor Components: In both WebAssembly and Server models, Blazor relies heavily on components—reusable, modular UI building blocks. Components have their own lifecycle, including:
  1. OnInitializedAsync(): Invoked when the component is initialized.
  2. OnParametersSetAsync(): Invoked when the parameters are set.
  3. OnAfterRenderAsync(): Invoked after the component is rendered.
• Component Reusability: Components can be reused across different pages and applications, allowing developers to build maintainable and scalable web applications.

What Are the Basic Workflow of Blazor?

The basic workflow in Blazor involves the following steps:

1. Set Up the Project:

• The first step in any Blazor project is to create a new Blazor application using Visual Studio or the .NET CLI.
• Example: Create a Blazor WebAssembly app using the .NET CLI:

dotnet new blazorwasm -o BlazorApp
cd BlazorApp
dotnet run

2. Design Components:

• Define your UI components. These components define the building blocks of your Blazor application, such as buttons, forms, data grids, etc.
• Each component is defined as a .razor file that includes HTML and C# code.
• Example: A simple Counter.razor component:

@page "/counter"

<h3>Counter</h3>

<p>Current count: @count</p>
<button class="btn btn-primary" @onclick="IncrementCount">Increment</button>

@code {
    private int count = 0;
    
    private void IncrementCount()
    {
        count++;
    }
}

3. Run and Test:

• After creating the necessary components, run the application to view the rendered components in a browser. The app will be served through a local development server.
• In Blazor WebAssembly, the app runs directly in the browser using WebAssembly, while in Blazor Server, it communicates with the server for rendering updates.

4. Debug and Deploy:

• Debug your application by using browser developer tools or the built-in debugging tools in Visual Studio. Once your application is ready, deploy it to a web server.
• Example Deployment: Deploy a Blazor app to Azure, AWS, or any web server that supports static files.

Step-by-Step Getting Started Guide for Blazor

To get started with Blazor, follow these steps:

Step 1: Install .NET SDK

• Make sure you have the .NET SDK installed on your machine. You can download it from the official Microsoft website.

Step 2: Create a Blazor Application

• Open your terminal or command prompt and run the following command to create a new Blazor application:

dotnet new blazorwasm -o BlazorApp
cd BlazorApp
dotnet run

Step 3: Create Components

• In the Pages folder, create a new .razor file for each component you want to build (e.g., Counter.razor).

Step 4: Run and Test the Application

• Once your components are ready, run the application locally to test it:

dotnet run

Step 5: Publish the Application

• Once you’re happy with the application, you can publish it to any web server or cloud service like Azure or AWS.

The post Guide to Blazor: Use Cases, Architecture, Workflow, and Getting Started appeared first on scmGalaxy.

1. What is ASP.NET MVC?

ASP.NET MVC (Model-View-Controller) is a web application framework developed by Microsoft that enables developers to build scalable, maintainable, and testable web applications. Released as part of the ASP.NET platform, MVC enforces a clear separation of concerns by dividing applications into three interconnected components:

• Model: Represents the application data and business logic. It manages the data, rules, and logic of the application domain.
• View: Handles the presentation layer — the user interface, which displays data and collects user input.
• Controller: Serves as an intermediary between models and views. It handles user requests, processes inputs, interacts with the model, and selects views for response rendering.

ASP.NET MVC emphasizes clean design, supports full control over rendered HTML, enables RESTful URL routing, and promotes testability through loose coupling of components.

Unlike traditional ASP.NET Web Forms that use event-driven programming and rely on ViewState, ASP.NET MVC is stateless and suits modern web applications requiring greater control over HTML, CSS, JavaScript, and HTTP.

2. Major Use Cases of ASP.NET MVC

2.1 Enterprise Web Applications

ASP.NET MVC is widely used to build complex, enterprise-grade web applications requiring scalability, maintainability, and robust security.

2.2 Public-Facing Websites

Its routing capabilities and SEO-friendly URL schemes make it ideal for public websites needing clean, readable URLs that improve search engine rankings.

2.3 RESTful APIs and Web Services

ASP.NET MVC supports HTTP verbs and routing patterns that make building RESTful APIs straightforward, often combined with Web API for service-oriented architecture.

2.4 Single Page Applications (SPA)

Developers use MVC backend services with JavaScript SPA frameworks (React, Angular, Vue) to provide data APIs and server-rendered views.

2.5 Mobile-Friendly and Responsive Sites

Features like Display Modes enable serving different views or layouts optimized for mobile or desktop devices, enhancing user experience on multiple platforms.

2.6 Applications Supporting Test-Driven Development (TDD)

The decoupled architecture facilitates unit testing controllers and business logic independently, making MVC preferred in projects emphasizing quality assurance.

3. How ASP.NET MVC Works Along with Architecture

3.1 MVC Pattern Overview

The pattern separates application logic as:

• Model: Handles data representation, validation, and domain logic.
• View: Contains UI templates (using Razor syntax) that render data into HTML.
• Controller: Processes incoming HTTP requests, executes actions, interacts with models, and returns views or data.

3.2 Request Processing Lifecycle

1. Routing Module Parses incoming URLs and maps them to a controller action based on route configuration (defined in RouteConfig.cs).
2. Controller Activation Instantiates the targeted controller and invokes the appropriate action method.
3. Action Execution Executes business logic and interacts with models (e.g., fetching data from databases).
4. Result Execution Returns an ActionResult, typically rendering a view or returning JSON/XML for AJAX or API requests.
5. View Rendering The view engine (usually Razor) compiles and executes the view templates, merging them with model data to generate HTML.
6. Response Transmission The generated HTML response is sent to the client browser for display.

3.3 Core Architectural Components

4. Basic Workflow of ASP.NET MVC Application Development

Step 1: Configure Routes

Define URL patterns in the routing configuration to map URLs to controller actions.

Step 2: Develop Models

Create classes representing data entities, including validation attributes.

Step 3: Build Controllers

Implement controller classes with action methods to handle user interactions and business logic.

Step 4: Create Views

Design Razor view templates bound to model data to generate dynamic HTML.

Step 5: Implement Client-Side Features

Enhance the user experience with JavaScript, jQuery, or client frameworks.

Step 6: Test Components

Write unit and integration tests for controllers and business logic.

Step 7: Deploy and Monitor

Publish the application to IIS, Azure, or other web servers, and monitor its health and performance.

5. Step-by-Step Getting Started Guide for ASP.NET MVC

Prerequisites

• Visual Studio (Community or higher edition).
• .NET Framework (4.5+) or .NET Core SDK if using ASP.NET Core MVC.

Step 1: Create a New Project

• Launch Visual Studio.
• Select File > New > Project.
• Choose ASP.NET Web Application (.NET Framework) or ASP.NET Core Web Application.
• Select the MVC template.

Step 2: Examine the Project Structure

• Controllers: Handle incoming requests.
• Models: Represent application data.
• Views: Contain Razor view files.
• Scripts: JavaScript and jQuery files.
• Content: CSS, images, fonts.

Step 3: Define a Controller

Example:

public class HomeController : Controller
{
    public ActionResult Index()
    {
        ViewBag.Message = "Welcome to ASP.NET MVC!";
        return View();
    }
}

Step 4: Create a Corresponding View

Create Index.cshtml in Views/Home:

@{
    ViewBag.Title = "Home Page";
}

<h2>@ViewBag.Message</h2>

Step 5: Run Your Application

Press F5 to run and open your app in the browser.

Step 6: Add a Model and Use It

Create a model:

public class Product
{
    public int Id { get; set; }
    public string Name { get; set; }
}

Pass data to view:

public ActionResult Products()
{
    var products = new List<Product>
    {
        new Product { Id = 1, Name = "Laptop" },
        new Product { Id = 2, Name = "Tablet" }
    };
    return View(products);
}

Create strongly typed view:

@model IEnumerable<YourNamespace.Models.Product>

<h2>Products</h2>
<ul>
@foreach(var product in Model)
{
    <li>@product.Name</li>
}
</ul>

6. Advanced Features of ASP.NET MVC

• Data Annotations: Easy model validation.
• Asynchronous Controllers: Support for scalable apps.
• Dependency Injection: Built-in or via third-party containers.
• Filters: Implement authorization, exception handling, logging.
• Bundling & Minification: Reduce HTTP requests and payload sizes.
• Web API Integration: Create RESTful APIs in the same project.
• Localization & Globalization: Build multilingual apps.
• Custom Model Binders: Parse complex request data.
• Attribute Routing: Define routes directly on controller actions.

7. Best Practices

• Use ViewModels to pass only needed data to views.
• Separate business logic from controllers using service layers.
• Protect your app with authentication and authorization filters.
• Use client-side validation along with server-side.
• Leverage AJAX for better user experience.
• Keep controllers thin; move logic into services or repositories.
• Write unit tests for controllers and models.
• Use logging and monitoring tools for production diagnostics.

The post ASP.NET MVC 4: In-Depth Guide to Architecture, Use Cases and Practical Implementation appeared first on scmGalaxy.

What is PowerShell?

PowerShell is a powerful, task automation framework and scripting language developed by Microsoft. Initially released in 2006, it is designed for system administrators and IT professionals to automate and manage the administration of Windows-based systems and applications. PowerShell combines both a command-line shell and a scripting language, providing a comprehensive environment for managing tasks across both local and remote machines.

Unlike traditional shells like Command Prompt, PowerShell is built on the .NET framework and uses cmdlets (command-lets), which are small, specialized commands. PowerShell is not just a simple command shell; it integrates with the Windows operating system, allowing users to access and control all aspects of the system, such as file systems, processes, services, registry settings, and much more.

A key feature of PowerShell is its ability to manipulate objects. While most shells return text-based output, PowerShell handles objects as its output, making it much more versatile for automating complex tasks. PowerShell can interact with multiple data sources, such as databases, web services, and cloud environments, making it a go-to tool for IT automation, configuration management, and orchestration.

PowerShell is now available cross-platform, meaning it runs not only on Windows but also on macOS and Linux as PowerShell Core, a version built on .NET Core.

What are the Major Use Cases of PowerShell?

PowerShell’s flexibility and extensive range of features make it applicable in a wide array of use cases. Some of the most common and major use cases include:

1. System Administration and Automation:
   • PowerShell is widely used by system administrators to automate routine tasks such as managing system configurations, automating file backups, and monitoring system health.
   • IT administrators often use PowerShell to automate the creation and management of users, groups, and permissions in Active Directory.
2. Configuration Management:
   • PowerShell integrates with Desired State Configuration (DSC), a management platform for automating the deployment and configuration of software and systems.
   • DSC allows administrators to define configurations for systems, ensuring that they maintain a desired state automatically and consistently.
3. Cloud Management:
   • With its powerful scripting capabilities, PowerShell is heavily used in managing cloud environments, particularly in Microsoft Azure. The Azure PowerShell module allows administrators to automate the deployment and management of cloud services and resources.
   • For example, managing Azure virtual machines, configuring storage, and automating networking tasks can be achieved via PowerShell commands.
4. DevOps Automation:
   • PowerShell is commonly used in DevOps environments for continuous integration/continuous deployment (CI/CD). It helps automate tasks related to building, testing, and deploying software applications.
   • PowerShell scripts are often integrated with tools like Jenkins, Azure DevOps, and GitLab to streamline development workflows.
5. Remote Management:
   • PowerShell’s remoting feature allows users to execute commands on remote machines, making it an invaluable tool for managing multiple servers and workstations from a single control point.
   • Administrators can run scripts on remote systems without having to physically log in to each system, which significantly reduces time and effort in large environments.
6. Task Scheduling and Batch Processing:
   • PowerShell scripts can be scheduled to run automatically at specific times or intervals using Windows Task Scheduler.
   • This is useful for tasks like regular system cleanup, data processing, or executing batch jobs without requiring manual intervention.
7. Security Auditing and Reporting:
   • Security administrators use PowerShell to gather system logs, monitor security events, and audit system configurations. It is an excellent tool for querying event logs, checking file integrity, and generating reports on system security settings.
8. Data Management and File Operations:
   • PowerShell excels in file manipulation, such as copying, moving, renaming, and deleting files and directories. Administrators use PowerShell for bulk file management tasks, especially in large environments where manual handling is inefficient.

How PowerShell Works Along with Architecture?

PowerShell operates within a robust architecture that facilitates its wide range of automation capabilities. Understanding how PowerShell works under the hood can help developers and administrators use it more effectively:

1. PowerShell Cmdlets:
   • PowerShell commands, called cmdlets, are the basic building blocks of PowerShell functionality. Cmdlets are lightweight, single-function commands designed to perform specific tasks like retrieving system information or modifying settings.
   • Cmdlets follow the verb-noun naming convention (e.g., Get-Process, Set-Content), making them intuitive and easy to use.
2. Pipelines:
   • One of PowerShell’s most powerful features is its ability to work with pipelines. Pipelines allow the output of one cmdlet to be passed directly as input to another cmdlet, enabling complex workflows to be constructed in a single line of code.
   • For example, Get-Process | Where-Object {$_.CPU -gt 100} retrieves processes with high CPU usage and filters them accordingly.
3. Objects and Object-Oriented Nature:
   • Unlike other shells that return text-based output, PowerShell is object-oriented. Cmdlets return objects, which can have properties and methods. This allows for richer and more flexible output manipulation.
   • For instance, you can extract specific properties from an object like a file or process, and manipulate them with ease.
4. The Execution Engine:
   • The PowerShell engine is responsible for parsing and executing commands. It processes cmdlets, functions, and scripts, interpreting them and managing the runtime environment. The engine can execute scripts either interactively or in batch mode.
   • PowerShell can run scripts written in the .ps1 file format, which contain sequences of commands designed to automate tasks.
5. PowerShell Remoting:
   • PowerShell remoting allows you to run commands and scripts on remote computers. It uses the Windows Remote Management (WinRM) protocol for communication. This feature allows administrators to manage multiple systems from a central server without needing direct access to each one.
6. Modules and Snap-ins:
   • PowerShell extends its functionality with modules and snap-ins, which package sets of cmdlets, functions, and workflows. For instance, the Active Directory module allows you to manage Active Directory objects, while the Azure PowerShell module provides commands for managing Azure resources.
   • Modules can be installed from the PowerShell Gallery or custom sources and can be imported using Import-Module.

What are the Basic Workflow of PowerShell?

The basic workflow in PowerShell involves writing commands, executing them, and refining the results for automation tasks. Here’s a typical PowerShell workflow:

1. Launching PowerShell:
   • You can start PowerShell by opening the application from the Start menu or by executing powershell in a command prompt.
   • PowerShell can also be run with Administrator privileges to perform higher-level tasks that require elevated permissions.
2. Using Cmdlets:
   • PowerShell’s functionality is driven by cmdlets. Cmdlets can be run directly at the command prompt, or they can be combined in a script. For example: Get-Process | Where-Object {$_.CPU -gt 100}
   • Cmdlets are often used in combination with pipes (|) to process data across multiple stages.
3. Script Creation:
   • For recurring tasks, it’s common to write PowerShell scripts (with the .ps1 extension). These scripts can contain sequences of commands, conditional logic (like if statements), loops (for, while), and functions.
4. Managing Remote Systems:
   • PowerShell’s remoting feature allows administrators to run commands on remote systems using: Enter-PSSession -ComputerName RemotePC
   • This is useful in large environments where remote management is required.
5. Scheduling Tasks:
   • PowerShell scripts can be scheduled to run automatically using Windows Task Scheduler, allowing for automated task execution at predefined times or intervals.
6. Output and Error Handling:
   • PowerShell’s output is typically displayed in the console, but it can also be redirected to files or other commands. Error handling is crucial for production scripts, and PowerShell provides cmdlets like Try, Catch, and Finally to manage errors efficiently.

Step-by-Step Getting Started Guide for PowerShell

1. Install PowerShell:
   • For Windows users, PowerShell is pre-installed. For macOS and Linux users, PowerShell Core can be installed from the official GitHub repository.
2. Start PowerShell:
   • On Windows, search for “PowerShell” in the Start menu. On macOS and Linux, open the terminal and type pwsh to start PowerShell Core.
3. Running Simple Cmdlets:
   • Start by running simple commands like: Get-Process
   • This cmdlet lists all running processes.
4. Creating and Running Scripts:
   • Use a text editor to create a .ps1 script. For example: Get-Service | Where-Object {$_.Status -eq 'Running'}
   • Save the file and run it using .YourScript.ps1.
5. Learn Remote Management:
   • Enable remoting on your machine with the following command: Enable-PSRemoting -Force
   • Use Enter-PSSession to start a remote session and manage remote machines.
6. Use PowerShell for Automation:
   • Start automating common tasks such as system cleanup, report generation, or user account management by scripting these tasks in PowerShell.

The post Mastering PowerShell: A Comprehensive Guide to Scripting and Automation appeared first on scmGalaxy.

According to the experts, becoming a Microsoft Azure certified professional is one of the most demanding certification in the cloud market.

Azure DevOps has a great growth in coming times and promising future. The practise of DevOps is increasing day by day in IT domain. The demand for the Azure DevOps is well shown in the salary structure in India for them. This particular blog is all about the future of Azure DevOps in different areas of the IT industry and opportunities you have.

Azure DevOps is a modern DevOps tool which is used to developing, testing and deploying modern apps through optimized cycle to provide a quality delivery of applications to users. It provides so many of tool which can helpful in tracking software building progress and also helpful for taking decision to deliver great software to the end users. The main thing is Azure DevOps services are not dependent on cloud platform.

Why Go for Azure Certification Courses?

With a Microsoft Azure certification, candidates will often stand out amongst the competition when it comes to getting a job in the cloud computing industry. According to Microsoft, more than 1,000 new sign-ups for Azure each day, which equates to approximately 365,000 new sign-ups each year. Obtaining that certification is the first key step to achieving your career goals. If you’re looking for some more inspiration, consider some of the other following advantages of taking an Azure certification course.

• Career growth
• Flexibility
• Structured learning approach
• Interact with like-minded individuals
• Prove that you’re committed

Jobs for Azure Certified Professional

As per the records, there are over 51,000 vacancies for Azure professionals, all in the leading companies in the United States. In India, there are more than 19,000 job openings for these experts.

Following are some of the job profiles related to Azure that recruiters hire the most:

• Azure Administrator
• System Administrator
• Azure Cloud Solutions Consultant
• Azure Customer Engineer
• Azure Services Sales Specialist
• Azure Technical Support
• Azure Cloud Engineer
• Azure Systems Engineer
• Cloud Architect
• Azure AD Engineer and More.

Which is the best Azure Training in Hyderabad?

“Master in Azure DevOps” by DevOpsSchool is one of the top Azure training in Hyderabad. In this course you will learn about Microsoft Azure concepts, Azure tools. This will validate your multi-skills in Microsoft Azure and stay unique in job market. There are so many high profile jobs are out there now for someone with Microsoft Azure skills.  DevOpsSchool will cover top 3 certifications like- Azure Fundamental (AZ – 900), Azure Administrator (AZ – 104), and Azure DevOps (AZ – 400). Both in online and offline classroom mode are provide by top experts/trainers, covering all the important topics required and related to course, Alarms and many more. Our support team and experts are always there and ready to clarify all your doubts and questions throughout the training. It will give you the enough practical knowledge, skills, and confidence to start your career as a Microsoft Certified Azure Aspirant.

How DevOpsSchool Azure training in Hyderabad would help?

DevOpsSchool is one of the Top Institute for Azure training in Hyderabad, by top experts/Trainers. Our Microsoft Azure training in Hyderabad are designed according to the needs of both beginners and professionals. This training program consist of Full-length Mock Exams, Section quizzes including free access to labs to test your knowledge on Azure. We will covering all the important topics required and related to course, Alarms and many more. Our support team and experts are always there and ready to clarify all your doubts and questions throughout the training.

It will help you to learn Azure from scratch to an advanced level with practical knowledge, skills, and confidence to start your career as a Microsoft Certified Azure Aspirant.

After the completion of our Microsoft Azure Certification Training in Hyderabad, you will definitely boost your expertise and acquire your dream job at your desired organization as you will proficient enough in Azure skill.

You can assure that Master in Azure DevOps can enable you in becoming proficient in on-demand as well as the highest-paid exponentially growing IT skill along with IT skills wherein the professionals are earning a good amount of salary in the industry.

DevOpsSchool has multiple Azure training venues in top cities of India like Hyderabad, Bangalore, Chennai, Pune, Delhi, etc. and globally as well.

I hope you find this particular blog helpful and informative.

Thank You!!

The post Which is the best Azure training in Hyderabad? appeared first on scmGalaxy.

In this blog, you will discuss about the Azure Administrator and learn how to become a Microsoft Azure Administrator:

Who is an Azure Administrator?

Azure administrators manage cloud services that span storage, security, networking, and also compute cloud capabilities. The certification is a role-based and validates ability to implement, monitor and maintain Microsoft Azure solutions, including major services related to compute, storage, network, and security.

If you planning to enter in this profession, then you must clear the AZ-104 Microsoft Azure Administration certification exam first. You will learn about az-104 in detail further in the blog.

Azure Professional Skills

If you want yourself in Azure-based profession, than you must have skills that you need to acquire, such as comfortable working with UNIX, Windows, and other operating systems, setting up cloud systems, balancing and deploying workloads, and more.

Skills that you need to acquire to become an Azure professional:

• In-depth knowledge of Cloud Computing services.
• Understanding of functions in databases, servers, networking, and software in the cloud.
• Knowledge of Microsoft and familiar working with Microsoft 365 and PowerShell.
• Knowledge of at least one programming language.
• Should have clear the Azure Administrator certification exam conducted by Microsoft.

Azure Administrator Certification AZ-104

AZ-104 is one of the latest exams released by Microsoft in year 2020 which is the replacement of AZ-103. Once you clear the AZ-104 exam, Microsoft will reward you with the Azure Administrator Associate certification. Talking about this certification price, it is about US$165, and you have to pay the same for every next attempt.

Azure Administrator Jobs

As per the records, there are over 51,000 vacancies for Azure professionals, all in the leading companies in the United States. In India, there are more than 19,000 job openings for these experts.

Following are some of the job profiles related to Azure that recruiters hire the most:

• Azure Administrator
• System Administrator
• Azure Cloud Solutions Consultant
• Azure Customer Engineer
• Azure Services Sales Specialist
• Azure Technical Support
• Azure Cloud Engineer
• Azure Systems Engineer
• Cloud Architect
• Azure AD Engineer

Clearing this Azure Administrator certification exam is very important to get any of the job roles mentioned. But after all this, for getting selected for these jobs, you must also prepare a good Azure Administrator resume, consisting of all the demanding skills mentioned in the job description.

Let’s take a look at some of the job descriptions so that you understand the roles better.

Why you should get Microsoft Azure Certification?

Everybody want a good career with handsome income.  According to the recent studies, Azure Administrator jobs salary in India is approximately ₹563,000 per annum, which is much higher than most of the other IT salaries. These professionals’ salary range in India is between ₹333,000 and ₹1,307,000 per year.

Azure Administrator Associate is one of three role-based certifications taking its place. In every aspect of IT, cloud plays an important role. Most of the organizations have some dependency on a cloud platform and most of these companies use Microsoft Azure as a part of their cloud infrastructure to host their services as part of an efficient, highly-scalable architecture.

To remain competitive in IT domain, cloud almost certainly needs to be part of someone skillset. The Azure Administrator Associate certification is for individuals who is looking to enhance their current career or are looking to get into a new role as an Azure cloud administrator.

Exam Structure

Conclusion

So, If you want to prepare for the Azure Administration exam from Microsoft and become proficient in this domain than this blog provide you knowledge about who these professionals are, the necessary skills in this domain, the certification that you need to clear to get into this field, the job opportunities available after clearing the certification, and more. Now the question is where I can get Certification with quality learning and hands-on projects and many more. For this I would like to suggest you DevOpsScool, one of the best and leading institute for AZ-104 Certification, with best expert. Guide you throughout your learning and provide you best support you want.

Thank you!!

The post How to become Microsoft Certified Azure Administrator AZ-104? appeared first on scmGalaxy.

Azure DevOps includes the following services:

• Azure Boards

It is a powerful agile tool for managing Kanban board, reporting, and product backlog. It also helps you to plan, track, and discuss work across the team.

It has components like work items, backlogs, Boards, queries, sprints details.

• Azure Repos

Azure Repos service provides you unlimited cloud-hosted private Git repository for your project. This is a type of standard Git service and works use as distributed source controls. Azure Repos supports all Git clients and all IDEs.

• Azure Pipelines

It is a cloud-hosted pipelines that helps you in for fast CI/CD that works with any language, platform, and cloud. It helps you with continuously changes Release by connecting to any source control like GitHub, this service can release changes continuously to any cloud. Azure Pipelines has components like build, release, library, task groups, and deployment groups.

• Azure Test Plans

Azure Test Plans provides manual and exploratory testing tools. It also help you to do automated and manual testing.  XML files can be used for load testing as well.

• Azure Artifacts

Azure Artifact service manages the dependencies used in source code. It can host and share package (like NPM, Nuget, and Maven) feeds from public and private sources. These artifacts simplify job building process.

Benefits of Azure DevOps

Azure DevOps allows their users to develop, deploy, and monitor code without opening multiple interfaces and you can also manage all of this from one view and bring ease to the customers.

Some of the main benefits are

• Timely Access to New Features

Every three weeks, DevOps users receive access to new features. No need to scramble around and wonder what’s new. These are not to be confused with upgrades, and speaking.

• No Upgrades to Worry About

Users need not worry about upgrading or patching up the toolchain because the Azure DevOps is a SaaS product. Companies that run on a CI/CD model no longer need to slow things down for the sake of upgrading.

• Reliability

Azure DevOps is backed by 24 x7 support and a 99.9% SLA.

• Flexibility

If your DevOps team doesn’t want or need the full suite of services, they can acquire them independently.

• Platform-agnostic

DevOps is designed to run on any platform like Linux, macOS, and Windows or language for example Android, C/C++, Node.js, Python, and Java, PHP, Ruby, .Net, and iOS apps.

• Cloud-agnostic

Azure DevOps works with AWS and GCP.

Why we use Azure DevOps?

There has been a lot of buzz lately about Azure DevOps and you may be wondering– why we use Azure DevOps?

Here are some of the reasons to consider Azure DevOps:

Azure DevOps is a feature-rich platform. The flexibility of supported languages, platforms and cloud vendors make it a viable option for a huge range of organisations.  However, if you’re currently running an on-premises Team Foundation Server moving to Azure DevOps would be a natural upgrade for you.

Azure DevOps is not focussed at organisations that are end-to-end Microsoft or Windows. Azure DevOps provides a platform that is:

• Flexible

You don’t have to go ‘all in’ on Azure DevOps. It is possible to adopt each of the services independently and integrate them with your existing tool chain, most popular tools are supported.

• Platformagnostic

Designed to work with any platform (Linux, MacOS and Windows) or language (including Node.js, Python, Java, PHP, Ruby, and C/C++, .NET, Android and iOS apps) Azure DevOps is not just aimed at organizations building and shipping.

• CloudAgnostic

Continuous delivery is supported to AWS and GCP as well as to Azure.

How long it take to Lean Azure DevOps?

If you have prior experience in software, programming, scripting, Linux, and Automation then you can learn DevOps basics such as CI/CD pipeline and its tools in one month.

If you have prior experience of software, programming, and scripting but not familiar with Linux, and Automation then you have to learn Linux and Automation first before learning DevOps basics such as CI/CD pipeline and its tools in 2-3 months.

 If you have prior experience of computer and software background but no experience in programming, scripting, Linux, and Automation then programming and scripting take two months, one month for OS and automation fundamentals, and one month for learning DevOps basics such as CI/CD pipeline and its tools. Overall, 4-5 months.

Roles and Responsibilities

DevOps Engineer works with developers and the IT team to oversee the code releases. Many-times developers who get interested in deployment and network operations or sysadmins who have a passion for scripting and coding and move into the development side where they can improve the planning of test and deployment.

Roles of Azure DevOps Engineer

• Implementing Continuous Feedback.
• Implementing Application Infrastructure.
• Implementing DevOps Development Processes.
• Implementing Dependency Management.
• Implementing Continuous Integration.
• Implementing Continuous Delivery.

Career opportunity as an Azure DevOps Engineer?

Azure DevOps Engineer is someone who has an understanding of the Software Development Lifecycle and if familiar with various automation tools for developing digital pipelines (CI/ CD pipelines).

Azure DevOps Engineers are responsible for defining and implementing a robust, scalable, pragmatic and realistic cloud solution that works for our clients. Design and implement cloud solutions which are secure, scalable, resilient, monitored, auditable and cost optimized.

So what are the options in front of you when you complete your Certification as an Azure DevOps Engineer?

Here are a few job roles that you can fill:

• Cloud Engineer
• DevOps
• Cloud Specialist
• High Availability
• MEAN
• Shell Scripting
• Big Data
• Windows Admiration

Salary of an Azure DevOps Engineer

More than 500 top Fortune companies as well as start-ups or small businesses that need an Azure DevOps Engineer who is certified and are ready to offer a lucrative Azure DevOps Engineer. So, don’t worry about the job prospect or salary aspect when it comes to being a certified Azure DevOps Engineer, just focus on upscaling your real-time expertise when you wish to be a part of any of these renowned organizations and get to work with your dream company with the salary you wished for. 

As an Azure DevOps engineer, the national average salary is $103,314.

• The DevOps engineer based on 3 years of experience can expect $7,927 per annum.
• The salary for the aforementioned experience ranges from $3,329 – $18,886.
• Also, the Azure DevOps engineer salary is also dependent on experience such as Entry level, Intermediate, Senior ranging from $79,000 – $134,000.
• Furthermore, Azure DevOps engineer salary also depends on the certification obtained through training platforms such as JanBask Training.

Now let us have a look at a range of salaries across the globe.

• The Azure DevOps Engineer Salary in the United Kingdom on average is £82,472 per year or £29.18 per hour. 
• The Azure DevOps Engineer Salary in the US on average is $136,500 per year or $70 per hour. 
• The Azure DevOps Engineer Salary in India on average is ₹ 2,100,000 per year or ₹ 1,077 per hour.
• The Azure DevOps Engineer Salary in Australia starts from an average of $130,000 per year or $66.67 per hour. 
• The Azure DevOps Engineer Salary in Canada on average is $120,938 per year or $62.02 per hour.

Conclusion

In this Article, we all discussed on point of a career in Azure DevOps. We provided you the enough information about the salaries what you can expect to earn in different job roles with skills We also discussed the options that you can choose as a skilled DevOps professional depending on your interests. If you are curious to learn about Azure DevOps, and make a good career with this skill then I would suggest you please check out DevOpsschool.com for more information.

The post Why should I used Azure DevOps? appeared first on scmGalaxy.

This course will also help professionals who is somehow associated with cloud infrasture, managing the team or from development and Testing background.

1. Project Managers,
2. Testing Professionals,
3. Software Developers and Architects,

And have experience with either administering IT infrastructure/applications or with automation

Pre-requisites

1. Basic understanding of linux/unix system concepts
2. Familiarity with Command Line Interface (CLI)
3. Familiarity with a Text Editor
4. Experience with managing systems/applications/infrastructure or with deployments/automation

How to contact?

1. email to info@scmGalaxy.com
2. Phone to +91 9939272785 (India)
3. Phone to +91 7739774984 (India)
4. WhatsApp  – +91 9939272785 
5. Skype – RajeshKumarIN

How to enroll for this training?

Testimonials : What professionals feel about our training?

Please click on this url to know what our student think about training program- Click Here

FAQ : Do you have additional questions?

Please click on this url to know Click Here

Why Online training is more preferred than classroom?

Please click on this url to know Click Here

Classroom Training and Workshop?

We do offer classroom training and workshop in Bangalore, Hyderabad, Pune, Mumbai and New Delhi. For more details, please send us an email to info@scmGalaxy.com

Also, you can follow this url Click Here

Fees Details (Fixed)

With Lifetime Enrollment
DevOps + Build & Release – INR 30K

Without Lifetime Enrollment
DevOps + Build & Release – INR 25K

Training Time and Calender

Please click on this url to know Click Here

Time

1. 7:00 AM IST to 8:30 AM IST
2. 8:00 PM IST to 9:30 PM IST

Why to Learn Build and Release

1. Technical benefits: Continuous software delivery
2. Technical benefits: Less complex problems to fix
3. Technical benefits: Faster resolution of problems
4. Business benefits: Faster delivery of features
5. Business benefits: More stable operating environments
6. Business benefits: More time available to add value (rather than fix/maintain)

Course Features: Build and Release

1. 30 Hours instructor led online class
2. Hands on Approach – We emphasize on learning by doing.
3. Life time free re-enrollment to future DevOps courses
4. Life time free access to all learning materials including
   1. Class recordings
   2. Presentations
   3. Sample Code
   4. Projects
5. Total Lab Infrasture in cloud and 24×7 available
6. 70% of the class is consist of Lab
7. Each week assignments (total 4) with personal assistance
8. Two real time senario based projects with standard evaluation
9. 24×7 online support to queries during and after the course completion
10. 1 dedicated class for Interview preparations
11. Online Quizs for each tool
12. Lifetime Free access to Our Learning Portal for FreeVideos, Scripts Collection, Quiz, Interview Guide, Projects, Tutorials etc.
13. Two Courses One Fee – DevOps and Build & Release which includes Chef and Puppet courses are together is being offered to our students.
14. Life time Enrollment – Once you enroll, its life time enrollment. That means you can attend any number of session, Any Batch, Any time without paying another time for DevOps, Build & Release, Chef and Puppet. That means all courses, only one fees for life time.

Agenda of the training: Tools and Technologies

Concept and Process

1. Software Configuration Management overview
2. Elements of Software Configuration Management
3. Introduction of Version management / Source Code Management
4. Overview of Build management
5. Overview of Packaging management
6. Build and Release Concept and Process
7. Overview of Release and Deployment management
8. DevOps Concept and Process
9. Continuous Integration and Delivery Process

Operating Systems

1. Windows Administrator fundamental

Source Code Management

1. Git Fundamental
2. Git Advance
3. Team Foundation Source Code

Build Tools

1. MsBuild Fundamental
2. NANT 
3. Team Foundation Build

Scripting

1. Powershell Scripting – Fundamental

Package Management in Linux and Windows

1. Nuget

Artifact Repository Tools

1. Nuget

Configuration Management Tools

1. Puppet Fundamental
2. Puppet Advance
3. Octopus

Incident Management tools

1. Jira Fundamental

Continuous Integration Tools

1. Jenkins Fundamental
2. Jenkins Advance
3. Teamcity Fundamental

CI/CD Concept and Implementation

1. Concept of Continuous Integration
2. Concept of Continuous Deployment
3. Concept of Continuous Delivery
4. CI/CD Implementation

The post DOT NET Build and Release Training | Build and Release DOTNET Course appeared first on scmGalaxy.

The post Chef in Microsoft Windows using DSC | Training | Course appeared first on scmGalaxy.

Bootstrap a Microsoft Windows node, the “knife windows” plugin is required, 

More info about knife window tool, http://docs.chef.io/plugin_knife_windows.html

knife bootstrap windows winrm uvo1eak9a5geec05f7z.vm.cld.sr –winrm-user administrator –winrm-password ‘Rx4m7W4PQu’ –node-name firefox_win –run-list ‘recipe[snc_firefox]’

nife bootstrap windows winrm uvo1eak9a5geec05f7z.vm.cld.sr -x administrator -P Rx4m7W4PQu

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