->It´s web server is able to handle a HUGE number of connections out of the box
->Various libraries can be run on browser, the same as in the server
->Very friendly to Websockets (real-time web apps)
->Lots of libraries are being ported to it from other langs.
->Express, inspired in ruby´s Sinatra; is very light on memory but also very powerful
My Node.js workshop from Sela's Developer Conference 2015.
In the Workshop we covered The basics Node.js api's and the express web application framework.
This document provides an introduction to Node.js including its history, uses, advantages, and community. It describes how Node.js uses non-blocking I/O and JavaScript to enable highly scalable applications. Examples show how Node.js can run HTTP servers and handle streaming data faster than traditional blocking architectures. The document recommends Node.js for real-time web applications and advises against using it for hard real-time systems or CPU-intensive tasks. It encourages participation in the growing Node.js community on mailing lists and IRC.
A language for the Internet: Why JavaScript and Node.js is right for Internet...Tom Croucher
Node.js and JavaScript are well-suited for Internet applications because Node.js uses an event-driven, non-blocking I/O model that makes it lightweight and efficient, capable of supporting many more concurrent connections than traditional server-side models like Apache. This event loop system allows Node.js to handle multiple requests simultaneously without blocking any specific request. It also minimizes memory usage so more requests can be served from fewer servers.
The document discusses Node.js and the Express web application framework. It provides a basic "Hello World" example to demonstrate creating a Node.js server file and requiring it in an index file to start the server. It then shows a simple Express app with one route that responds to requests to the homepage with "Hello World!". The document provides an overview of building an application stack in Node.js and introducing the Express framework.
Node.js is a JavaScript runtime environment that allows building fast, scalable network applications using event-driven, asynchronous I/O. It uses Google's V8 JavaScript engine and can run on Windows, Mac OS, and Linux. Node.js is commonly used for building servers, APIs, real-time apps, streaming data, and bots. Typical Node.js apps use NPM to install packages for tasks like databases, web frameworks, testing, and more. Node.js handles non-blocking I/O through callbacks to avoid blocking and optimize performance. A basic HTTP server in Node.js creates a server, handles requests, and sends responses.
A language for the Internet: Why JavaScript and Node.js is right for Internet...Tom Croucher
Increasingly we want to do more with the web and Internet applications we build. We have more features, more data, more users, more devices and all of it needs to be in real-time. With all of these demands how can we keep up? The answer is choosing a language and a platform that are optimized for the kind of architecture Internet and web applications really have. The traditional approach prioritises computation, assigning server resources before they are actually needed. JavaScript and Node.js both take an event driven approach only assigning resources to events as they happen. This allows us to make dramatic gains in performance and resource utilization while still having an environment which is fun and easy to program.
This document provides an overview of Node.js and how to build web applications with it. It discusses asynchronous and synchronous reading and writing of files using the fs module. It also covers creating HTTP servers and clients to handle network requests, as well as using common Node modules like net, os, and path. The document demonstrates building a basic web server with Express to handle GET and POST requests, and routing requests to different handler functions based on the request path and method.
This document provides an introduction and overview of a Node.js tutorial presented by Tom Hughes-Croucher. The tutorial covers topics such as building scalable server-side code with JavaScript using Node.js, debugging Node.js applications, using frameworks like Express.js, and best practices for deploying Node.js applications in production environments. The tutorial includes exercises for hands-on learning and demonstrates tools and techniques like Socket.io, clustering, error handling and using Redis with Node.js applications.
Node.js is an asynchronous event-driven JavaScript runtime that aims to provide an easy way to build scalable network programs. It uses an event loop model that keeps slow operations from blocking other operations by executing callbacks asynchronously. This allows Node.js programs to handle multiple connections concurrently without creating new threads. Common uses of Node.js include building web servers, real-time applications, crawlers, and process monitoring tools. The document provides examples of using modules like HTTP, TCP, DNS, and file system modules to demonstrate Node.js's asynchronous and non-blocking I/O model.
A slightly advanced introduction to node.jsSudar Muthu
Slides from my talk about node.js which I gave at jsFoo. More info at http://sudarmuthu.com/blog/introduction-to-node-js-at-jsfoo
This document provides an overview of server-side JavaScript using Node.js in 3 sentences or less:
Node.js allows for the development of server-side applications using JavaScript and non-blocking I/O. It introduces some theory around event loops and asynchronous programming in JavaScript. The document includes examples of building HTTP and TCP servers in Node.js and connecting to MongoDB, as well as when Node.js may and may not be suitable.
Node.js supports JavaScript syntax and uses modules to organize code. There are three types of modules - core modules which are built-in, local modules within the project, and third-party modules. Core modules like HTTP and file system (FS) provide key functionalities. To create a basic HTTP server, the HTTP core module is required, a server is set up to listen on a port using createServer(), and requests are handled using the request and response objects.
This document provides an introduction to Node.js, including what Node.js is, why it is useful, its built-in modules like HTTP and file system. Node.js is a server-side JavaScript environment that allows JavaScript to be run on the server. It uses non-blocking I/O and event-driven architecture, making it lightweight and efficient. The built-in HTTP module allows Node.js to create web servers and handle HTTP requests and responses. The file system module provides functions to read, write, update and delete files on the server.
This document provides an introduction to Node.js. It discusses that Node.js is an event-driven, non-blocking I/O platform for building scalable network applications using JavaScript. It was created to address issues with traditional blocking I/O by using asynchronous programming. The document outlines benefits of Node.js like using JavaScript for server-side applications, non-blocking I/O, a large module ecosystem, and an active community. It also provides examples of core modules, writing simple modules, and creating an HTTP server in Node.js.
Node.js is a popular JavaScript runtime built on Chrome's V8 JavaScript engine. It allows JavaScript to be run on the server side. Node.js uses asynchronous and event-driven programming, which makes it very fast. It has a large ecosystem of open source libraries and is used by many large companies. The document provides an introduction and overview of Node.js, how to install and use it, popular frameworks like Express and Connect, and emerging technologies like web sockets that Node.js supports.
Node.js is a JavaScript runtime built on Chrome's V8 engine that allows building scalable network applications using JavaScript on the server-side. It uses an event-driven, non-blocking I/O model that makes it lightweight and efficient, suitable for data-intensive real-time applications that run across distributed devices. Common uses of Node.js include building web servers, file upload clients, ad servers, chat servers, and any real-time data applications. The document provides an introduction to Node.js concepts like callbacks, blocking vs non-blocking code, the event loop, streams, events, and modules.
Node.js is an environment for developing high-performance web services using JavaScript on the server-side. It uses Google's V8 JavaScript engine and an event-driven, non-blocking I/O model that makes it lightweight and efficient, especially for real-time web applications with many concurrent connections. Common programming techniques in Node.js include asynchronous I/O with callbacks, event-driven programming, and a common module system for building reusable components.
This document provides an overview of Node.js, including what it is, how it uses JavaScript and an event-driven asynchronous model, and examples of building HTTP servers and RESTful APIs. It also discusses MongoDB for data storage and the Express framework. Node.js is a platform for building fast and scalable network applications using an event-driven, non-blocking I/O model. It is well-suited for data-intensive real-time applications that leverage JavaScript and JSON.
The document provides an introduction to server-side JavaScript using Node.js. It discusses Node.js basics, how it uses an event-driven and non-blocking model, and provides examples of building HTTP and TCP servers. It also covers Node.js modules, benchmarks, when to use/not use Node.js, and popular companies using Node.js in production.
Node.js is a JavaScript runtime built on Chrome's V8 JavaScript engine. It uses an event-driven, non-blocking I/O model that makes it lightweight and efficient. Node.js has the largest ecosystem of open source libraries due to its package manager npm. The document discusses using Node.js because developers already know JavaScript, its performance advantages, and tools like npm. It also provides instructions on installing Node.js and the Node Version Manager (nvm), and explains common Node.js commands.
Node.js is an asynchronous JavaScript runtime that allows for efficient handling of I/O operations. The presentation discusses developing with Node.js by using modules from NPM, debugging with node-inspector, common pitfalls like blocking loops, and best practices like avoiding large heaps and offloading intensive tasks. Key Node.js modules demonstrated include Express for web frameworks and Socket.io for real-time applications.
This document provides an overview of Node.js, including its goals, features, and uses. Node.js is a server-side JavaScript platform designed for building scalable network applications. It uses a non-blocking I/O model and single-threaded event loop. Node.js is commonly used for real-time web applications due to its non-blocking architecture. The document also discusses Node.js modules, installation, basic HTTP servers, and blocking vs non-blocking code.
Generative AI refers to a subset of artificial intelligence that focuses on creating new content, such as images, text, music, and even videos, based on the data it has been trained on. Generative AI models learn patterns from large datasets and use these patterns to generate new content.
Microsoft Power BI is a business analytics service that allows users to visualize data and share insights across an organization, or embed them in apps or websites, offering a consolidated view of data from both on-premises and cloud sources
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A language for the Internet: Why JavaScript and Node.js is right for Internet...Tom Croucher
Increasingly we want to do more with the web and Internet applications we build. We have more features, more data, more users, more devices and all of it needs to be in real-time. With all of these demands how can we keep up? The answer is choosing a language and a platform that are optimized for the kind of architecture Internet and web applications really have. The traditional approach prioritises computation, assigning server resources before they are actually needed. JavaScript and Node.js both take an event driven approach only assigning resources to events as they happen. This allows us to make dramatic gains in performance and resource utilization while still having an environment which is fun and easy to program.
This document provides an overview of Node.js and how to build web applications with it. It discusses asynchronous and synchronous reading and writing of files using the fs module. It also covers creating HTTP servers and clients to handle network requests, as well as using common Node modules like net, os, and path. The document demonstrates building a basic web server with Express to handle GET and POST requests, and routing requests to different handler functions based on the request path and method.
This document provides an introduction and overview of a Node.js tutorial presented by Tom Hughes-Croucher. The tutorial covers topics such as building scalable server-side code with JavaScript using Node.js, debugging Node.js applications, using frameworks like Express.js, and best practices for deploying Node.js applications in production environments. The tutorial includes exercises for hands-on learning and demonstrates tools and techniques like Socket.io, clustering, error handling and using Redis with Node.js applications.
Node.js is an asynchronous event-driven JavaScript runtime that aims to provide an easy way to build scalable network programs. It uses an event loop model that keeps slow operations from blocking other operations by executing callbacks asynchronously. This allows Node.js programs to handle multiple connections concurrently without creating new threads. Common uses of Node.js include building web servers, real-time applications, crawlers, and process monitoring tools. The document provides examples of using modules like HTTP, TCP, DNS, and file system modules to demonstrate Node.js's asynchronous and non-blocking I/O model.
A slightly advanced introduction to node.jsSudar Muthu
Slides from my talk about node.js which I gave at jsFoo. More info at http://sudarmuthu.com/blog/introduction-to-node-js-at-jsfoo
This document provides an overview of server-side JavaScript using Node.js in 3 sentences or less:
Node.js allows for the development of server-side applications using JavaScript and non-blocking I/O. It introduces some theory around event loops and asynchronous programming in JavaScript. The document includes examples of building HTTP and TCP servers in Node.js and connecting to MongoDB, as well as when Node.js may and may not be suitable.
Node.js supports JavaScript syntax and uses modules to organize code. There are three types of modules - core modules which are built-in, local modules within the project, and third-party modules. Core modules like HTTP and file system (FS) provide key functionalities. To create a basic HTTP server, the HTTP core module is required, a server is set up to listen on a port using createServer(), and requests are handled using the request and response objects.
This document provides an introduction to Node.js, including what Node.js is, why it is useful, its built-in modules like HTTP and file system. Node.js is a server-side JavaScript environment that allows JavaScript to be run on the server. It uses non-blocking I/O and event-driven architecture, making it lightweight and efficient. The built-in HTTP module allows Node.js to create web servers and handle HTTP requests and responses. The file system module provides functions to read, write, update and delete files on the server.
This document provides an introduction to Node.js. It discusses that Node.js is an event-driven, non-blocking I/O platform for building scalable network applications using JavaScript. It was created to address issues with traditional blocking I/O by using asynchronous programming. The document outlines benefits of Node.js like using JavaScript for server-side applications, non-blocking I/O, a large module ecosystem, and an active community. It also provides examples of core modules, writing simple modules, and creating an HTTP server in Node.js.
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Node.js is a JavaScript runtime built on Chrome's V8 engine that allows building scalable network applications using JavaScript on the server-side. It uses an event-driven, non-blocking I/O model that makes it lightweight and efficient, suitable for data-intensive real-time applications that run across distributed devices. Common uses of Node.js include building web servers, file upload clients, ad servers, chat servers, and any real-time data applications. The document provides an introduction to Node.js concepts like callbacks, blocking vs non-blocking code, the event loop, streams, events, and modules.
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This document provides an overview of Node.js, including what it is, how it uses JavaScript and an event-driven asynchronous model, and examples of building HTTP servers and RESTful APIs. It also discusses MongoDB for data storage and the Express framework. Node.js is a platform for building fast and scalable network applications using an event-driven, non-blocking I/O model. It is well-suited for data-intensive real-time applications that leverage JavaScript and JSON.
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Node.js is a JavaScript runtime built on Chrome's V8 JavaScript engine. It uses an event-driven, non-blocking I/O model that makes it lightweight and efficient. Node.js has the largest ecosystem of open source libraries due to its package manager npm. The document discusses using Node.js because developers already know JavaScript, its performance advantages, and tools like npm. It also provides instructions on installing Node.js and the Node Version Manager (nvm), and explains common Node.js commands.
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Rod Johnson created the Spring Framework, an open-source Java application framework. Spring is considered a flexible, low-cost framework that improves coding efficiency. It helps developers perform functions like creating database transaction methods without transaction APIs. Spring removes configuration work so developers can focus on writing business logic. The Spring Framework uses inversion of control (IoC) and dependency injection (DI) principles to manage application objects and dependencies between them.
The document discusses REST (REpresentational State Transfer) APIs. It defines REST as a style of architecture for distributed hypermedia systems, including definitions of resources, URIs to identify resources, and HTTP methods like GET, POST, PUT, DELETE to operate on resources. It describes key REST concepts like resources, URIs, requests and responses, and architectural constraints like being stateless and cacheable. It provides examples of defining resources and URIs for a blog application API.
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2. Node.js
•Node.js is an open source server environment.
•Node.js allows you to run JavaScript on the
server.
•Node.js runs on various platforms (Windows,
Linux, Unix, Mac OS X, etc.)
3. Run a local server in order to
start using node.js in the
browser and do server side tasks
4. Getting Started
• Create a Node.js file named “Example.js", and add the following code:
• Create a Node.js file named “Example.js",
Example.js
var http = require('http');
http.createServer(function (req, res) {
res.writeHead(200, {'Content-Type': 'text/html'});
res.end('Hello World!');
}).listen(8080);
node Example.js
Start your internet browser, and type in the address:
http://localhost:8080
5. var util = require("util");
var http = require('http');
http.createServer(function (req, res) {
res.writeHead(200, {'Content-Type': 'text/html'});
res.end('Kongu IT World!');
}).listen(8080);
util.log("Server running at https://localhost:8080/");
6. Server.js
var http = require('http');
var fs=require('fs');
http.createServer(function (req, res) {
res.writeHead(200, {'Content-Type': 'text/html'});
var myreadSt=fs.createReadStream('Sample.html');
myreadSt.pipe(res);
}).listen(8087);
Sample.html
<!DOCTYPE html>
<html>
<body>
<h1 style="color:blue;">A Blue
Heading</h1>
<p style="color:red;">A red
paragraph.</p>
</body>
</html>
7. Node.js fs.createReadStream() Method
• createReadStream() method is an inbuilt application programming
interface of fs module which allow you to open up a
file/stream and read the data present in it.
Syntax:
fs.createReadStream( path, options )
path: This parameter holds the path of the file where to read the file.
It can be string, buffer or URL.
options: It is an optional parameter that holds string or object.
8. // Node.js program to demonstrate the
// fs.createReadStream() method
// Include fs module
let fs = require('fs'),
// Use fs.createReadStream() method
// to read the file
reader = fs.createReadStream('input.txt');
// Read and display the file data on console
reader.on('data', function (chunk) {
console.log(chunk.toString());
});
How to show the data in the
console.log() ? (node.js)
9. • The data is a transfer from server to client for a particular request in the form of a stream.
• The stream contains chunks.
• A chunk is a fragment of the data that is sent by the client to server all chunks concepts to
each other to make a buffer of the stream then the buffer is converted into meaningful
data
Syntax:
request.on('eventName',callback)
• Parameters: This function accepts the following two parameters:
• eventName: It is the name of the event that fired
• callback: It is the Callback function i.e Event handler of the particular event.
• Return type: The return type of this method is void.
What is chunk in Node.js ?
10. Index.html / Client side
<html>
<head>
<title></title>
</head>
<body>
<form action="http://localhost:8087">
Enter n1:<input type="text" name="n1" value=""/><br>
Enter n2:<input type="text" name="n2" value=""/><br>
<input type="submit" value="Login"/>
</form>
</body>
</html>
11. http=require('http');
url=require('url');
querystring = require('querystring’);
function onRequest(req,res){
var path = url.parse(req.url).pathname;
var query =url.parse(req.url).query;
var no1 =querystring.parse(query)["n1"];
var no2=querystring.parse(query)["n2"];
var sum=parseInt(no1)+parseInt(no2);
console.log(sum);
res.write("The result is "+" " + sum);
res.end();
}
http.createServer(onRequest).listen(4001);
console.log('Server has Started.......');
Server.js/ Server
side
12. Node.js URL Module
• The URL module splits up a web address into readable parts.
• Parse an address with the url.parse() method, and it will return a URL
object with each part of the address as properties:
13. Node.js Query String Module
• The Query String module provides a way of parsing the URL query
string.
• Query String Methods
Method Description
escape() Returns an escaped querystring
parse() Parses the querystring and returns an object
stringify() Stringifies an object, and returns a query string
unescape() Returns an unescaped query string
14. Node.js web-based Example
• A node.js web application contains the following three parts:
1. Import required modules: The "require" directive is used to load a
Node.js module.
2. Create server: You have to establish a server which will listen to
client's request similar to Apache HTTP Server.
3. Read request and return response: Server created in the second
step will read HTTP request made by client which can be a browser
or console and return the response.
15. How to create node.js web applications
• Import required module: The first step is to use ?require? directive
to load http module and store returned HTTP instance into http
variable.
For example:
var http = require("http");
16. Create server:
• In the second step, you have to use created http instance and
• call http.createServer() method to create server instance and
• then bind it at port 8081 using listen method associated with server
instance.
• Pass it a function with request and response parameters and write
the sample implementation to return "Hello World".
17. Combine step1 and step2 together in a file
named "main.js".
http.createServer(function (request, response) {
// Send the HTTP header
// HTTP Status: 200 : OK
// Content Type: text/plain
response.writeHead(200, {'Content-Type': 'text/plain'});
// Send the response body as "Hello World"
response.end('Hello Worldn');
}).listen(8081);
// Console will print the message
console.log('Server running at http://127.0.0.1:8081/');
18. File: main.js
var http = require("http");
http.createServer(function (request, response) {
// Send the HTTP header
// HTTP Status: 200 : OK
// Content Type: text/plain
response.writeHead(200, {'Content-Type': 'text/plain'});
// Send the response body as "Hello World"
response.end('Hello Worldn');
}).listen(8081);
// Console will print the message
console.log('Server running at http://127.0.0.1:8081/');
20. Make a request to Node.js server:
Open http://127.0.0.1:8081/ in any browser. You will see the following result.
21. Node.js File System (FS)
• Node File System (fs) module can be imported using following syntax:
Syntax:
var fs = require("fs")
The createReadStream() method is an inbuilt application programming interface of
fs module which allow you to open up a file/stream and read the data present in it.
Syntax:
fs.createReadStream( path, options )
path: This parameter holds the path of the file where to read the file. It can be
string, buffer or URL.
options: It is an optional parameter that holds string or object.
22. // Node.js program to demonstrate the
// fs.createReadStream() method
// Include fs module
let fs = require('fs'),
// Use fs.createReadStream() method
// to read the file
reader = fs.createReadStream('input.txt');
// Read and display the file data on console
reader.on('data', function (chunk) {
console.log(chunk.toString());
});
23. With html file
const http = require('http')
const fs = require('fs')
const server = http.createServer((req, res) => {
res.writeHead(200, { 'content-type': 'text/html' })
fs.createReadStream('index.html').pipe(res)
})
server.listen(process.env.PORT || 3000)
24. let http = require('http');
let fs = require('fs');
let handleRequest = (request, response) => {
fs.readFile('./index.html', null, function (error, data) {
if (error) {
response.writeHead(404);
respone.write('Whoops! File not found!');
} else {
response.write(data);
}
response.end();
});
};
http.createServer(handleRequest).listen(8000);