Sign In Start Free Trial

Spring 5.0 Cookbook

By : Sherwin John C. Tragura

3.5 (2)

Spring 5.0 Cookbook

3.5 (2)

By: Sherwin John C. Tragura

Overview of this book

The Spring framework has been the go-to framework for Java developers for quite some time. It enhances modularity, provides more readable code, and enables the developer to focus on developing the application while the underlying framework takes care of transaction APIs, remote APIs, JMX APIs, and JMS APIs. The upcoming version of the Spring Framework has a lot to offer, above and beyond the platform upgrade to Java 9, and this book will show you all you need to know to overcome common to advanced problems you might face. Each recipe will showcase some old and new issues and solutions, right from configuring Spring 5.0 container to testing its components. Most importantly, the book will highlight concurrent processes, asynchronous MVC and reactive programming using Reactor Core APIs. Aside from the core components, this book will also include integration of third-party technologies that are mostly needed in building enterprise applications. By the end of the book, the reader will not only be well versed with the essential concepts of Spring, but will also have mastered its latest features in a solution-oriented manner.

Preface

Preface

What this book covers

What you need for this book

Who this book is for

Sections

Conventions

Reader feedback

Free Chapter

Getting Started with Spring

Getting Started with Spring

Installing Java Development Kit 1.8

Installing Tomcat 9 and configuring HTTP/2

Installing STS Eclipse 3.8 IDE

Creating Eclipse projects using Maven

Creating Spring STS Eclipse projects using Gradle

Deploying Spring projects using Maven

Deploying Spring projects using Gradle

Installing the MySQL 5.7 database server

Installing the MongoDB 3.2 database server

Learning Dependency Injection (DI)

Learning Dependency Injection (DI)

Implementing a Spring container using XML

Implementing a Spring container using JavaConfig

Managing beans in an XML-based container

Managing beans in the JavaConfig container

Creating Singleton and Prototype beans

Defining eager and lazy spring beans

Creating an inner bean

Injecting Collections and Properties

Creating a Spring MVC using an XML-based approach

Creating a Spring MVC using the JavaConfig approach

Generating multiple ApplicationContexts

Using ResourceBundleMessageSource for Views

Implementing MVC Design Patterns

Implementing MVC Design Patterns

Creating the simple @Controller

Creating a simple @Controller with method-level URL mapping

Designing a simple form @Controller

Creating a multi-action @Controller

Form validation and parameter type conversion

Creating request- and session-scoped beans

Implementing page redirection and Flash-scoped beans

Creating database connection pooling

Implementing the DAO layer using the Spring JDBC Framework

Creating a service layer in an MVC application

Securing Spring MVC Applications

Securing Spring MVC Applications

Configuring Spring Security 4.2.2

Mapping sessions to channels and ports

Customizing the authentication process

Implementing authentication filters, login success, and failure handlers

Creating user details

Generating encrypted passwords

Applying Security to MVC methods

Creating roles and permissions from the database

Managing and storing sessions

Solving Cross-Site Request Forgery (CSRF) and session fixation attacks

Solving Cross-Site Scripting (XSS) and clickjacking attacks

Creating interceptors for login data validation

Cross-Cutting the MVC

Cross-Cutting the MVC

Logging and auditing service methods

Managing DAO transactions

Monitoring services and request handlers

Validating parameters and arguments

Managing exceptions

Implementing the caching mechanism

Intercepting request transactions

Implementing user authentication

Accessing with restrictions

Controlling concurrent user access

Implementing a mini-workflow using AOP

Functional Programming

Functional Programming

Implementing lambda expressions using anonymous inner classes

Implementing lambda expression using @FunctionInterface

Applying the built-in functional interfaces

Applying method and constructor references

Using the Stream API

Applying streams to collections

Applying streams to NIO 2.0

Using parallel streams

Reactive Programming

Reactive Programming

Applying the observer design pattern using Reactive Streams

Creating Mono<T> and Flux<T> publishers

Implementing the Subscriber<T> interface

Applying backpressure to Mono<T> and Flux<T>

Managing task executions using Schedulers

Creating concurrent and parallel emissions

Managing continuous data emission

Implementing Stream manipulation and transformation

Testing Reactive data transactions

Implementing Reactive events using RxJava 2.x

Reactive Web Applications

Reactive Web Applications

Configuring the TaskExecutor

Implementing @Async services

Creating asynchronous controllers

Creating @Scheduled services

Using Future<T> and CallableFuture<T>

Using Mono<T> and Flux<T> publishers for services

Creating Mono<T> and Flux<T> HTTP response

Integrating RxJava 2.0

Using FreeMarker to render Publisher<T> stream

Using Thymeleaf to render a Publisher<T> stream

Applying security on TaskExecutors

Spring Boot 2.0

Spring Boot 2.0

Building a non-reactive Spring MVC application

Configuring Logging

Adding JDBC Connectivity

Building a reactive Spring MVC application

Configuring Spring Security 5.x

Using reactive view resolvers

Using RouterFunction and HandlerFunction

Implementing Spring Data with JPA

Implementing REST services using @RestController and Spring REST

Applying Spring Cache

The Microservices

The Microservices

Exposing RESTful services in Spring 5

Using the actuator REST endpoints

Building a client-side application with RestTemplate, AsyncRestTemplate and, WebClient

Configuring the Eureka server for service registration

Implementing the Eureka service discovery and client-side load balancing

Applying resiliency to client applications

Consuming endpoints using a declarative method

Using Docker for deployment

Batch and Message-Driven Processes

Batch and Message-Driven Processes

Building synchronous batch processes

Implementing batch processes with a database

Constructing asynchronous batch processes

Building synchronous interprocess communication using AMQP

Creating asynchronous send-receive communication

Creating an event-driven asynchronous communication using AMQP

Creating stream communication with Spring Cloud Stream

Implementing batch processes using Spring Cloud Task

Other Spring 5 Features

Other Spring 5 Features

Using Hibernate 5 object-relational mapping

Applying Hazelcast distributed caching

Building client-server communications with WebSocket

Implementing Reactive WebSocket communication

Implementing asynchronous Spring Data JPA properties

Implementing Reactive Spring Data JPA repositories

Using Spring Data MongoDB

Building applications for big data storage

Building a Spring 5 application using Kotlin

Testing Spring 5 Components

Testing Spring 5 Components

Creating tests for Spring MVC components

Building standalone controller tests

Creating tests for DAO and service layers

Creating tests on secured applications

Creating tests using Spring Boot 2.0

Creating tests for Spring Data JPA

Building tests for blocking, asynchronous and reactive RESTful services

Building tests for Kotlin components

Customer Reviews

3.5 (2)

5 star

50%

4 star

0

3 star

0

2 star

50%

1 star

0

Applying Hazelcast distributed caching

In Chapter 9, Spring Boot 2.0, we introduced a recipe that highlighted Ehcache configuration with the Spring Boot 2.0 development. However, Ehcache works fine with applications deployed to a single-node deployment environment only. Once this simple architecture starts to adapt the distributed or clustered microservices set up, a new object caching mechanism that fits in a distributed environment must also be used, replacing the old caching. Unfortunately, Ehcache is not scalable when it comes to infrastructure changes like this. This recipe will show us a procedure that will implement a distributed caching mechanism suitable for a loosely-coupled architecture.

Getting ready

Utilize again...

Search

Your notes and bookmarks