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InfoQ Homepage Articles Leveraging Eclipse JNoSQL 1.0.0: Quarkus Integration and Building a Pet-Friendly REST API

Leveraging Eclipse JNoSQL 1.0.0: Quarkus Integration and Building a Pet-Friendly REST API

Key Takeaways

  • Eclipse JNoSQL leverages the Jakarta EE standard specifications, specifically Jakarta NoSQL and Jakarta Data, to ensure compatibility with various NoSQL database vendors and promote interoperability.
  • Eclipse JNoSQL seamlessly integrates with the Quarkus framework, enabling developers to build cloud-native applications with the benefits of both frameworks, such as rapid development, scalability, and resilience.
  • With Eclipse JNoSQL, developers can simplify the integration process, communicate seamlessly with diverse NoSQL databases, and future-proof their applications by easily adapting to changing database requirements.
  • By embracing Eclipse JNoSQL, developers can unlock the power of NoSQL databases while maintaining a familiar programming syntax, enabling efficient and effective data management in modern application development.
  • Eclipse JNoSQL 1.0.0 marks a significant milestone in the evolution of NoSQL database integration, providing developers with comprehensive tools and features to streamline their data management processes.
  • The release of Eclipse JNoSQL empowers developers to leverage the benefits of NoSQL databases, including scalability, flexibility, and performance, while ensuring compatibility and ease of use through standardized specifications.

In today's data-driven world, the ability to seamlessly integrate and manage data from diverse sources is crucial for the success of modern applications. Eclipse JNoSQL, with its latest release of version 1.0.0, presents a comprehensive solution that simplifies the integration of NoSQL databases. This article explores the exciting new features and enhancements introduced in Eclipse JNoSQL 1.0.0, highlighting its significance in empowering developers to efficiently harness the power of NoSQL databases. From advanced querying capabilities to seamless compatibility with the Quarkus framework, Eclipse JNoSQL opens up new possibilities for streamlined and future-proof data management.

Polyglot persistence refers to utilizing multiple database technologies to store different data types within a single application. It recognizes that other data models and storage technologies are better suited for specific use cases. In modern enterprise applications, polyglot persistence is crucial for several reasons.

Firstly, it allows enterprises to leverage the strengths of various database technologies, including NoSQL databases, to efficiently handle different data requirements. NoSQL databases excel at managing unstructured, semi-structured, and highly scalable data, making them ideal for scenarios like real-time analytics, content management systems, or IoT applications.

By adopting polyglot persistence, enterprises can select the most suitable database technology for each data model, optimizing performance, scalability, and flexibility. For example, a social media platform may store user profiles and relationships in a graph database while utilizing a document database for managing user-generated content.

Eclipse JNoSQL, an open-source framework, simplifies the integration of NoSQL databases within Jakarta EE applications. It provides a unified API and toolset, abstracting the complexities of working with different NoSQL databases and facilitating seamless development and maintenance.

Eclipse JNoSQL is a compatible implementation of Jakarta NoSQL, a specification defining a standard API for interacting with various NoSQL databases in a Jakarta EE environment. By embracing Jakarta NoSQL, developers can leverage Eclipse JNoSQL to seamlessly integrate different NoSQL databases into their Jakarta EE applications, ensuring vendor independence and flexibility.

Why Eclipse JNoSQL?

Eclipse JNoSQL serves as a Java solution for seamless integration between Java and NoSQL databases, specifically catering to the needs of enterprise applications. It achieves this by providing a unified API and utilizing the specifications based on four different NoSQL database types: key-value, column family, document, and graph.

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Using Eclipse JNoSQL, developers can leverage the same mapping annotations, such as @Entity, @Id, and @Column, regardless of the underlying NoSQL database. This approach allows developers to explore the benefits of different NoSQL databases without the burden of learning multiple APIs. It reduces the cognitive load and will enable developers to focus more on business logic while taking full advantage of the capabilities offered by the NoSQL database.

The extensibility of the Eclipse JNoSQL API is another critical advantage. It allows developers to work with specific behaviors of different NoSQL databases. For example, developers can utilize the Cassandra Query Language (CQL) through the same API if working with Cassandra.

The use of Eclipse JNoSQL simplifies the transition between different NoSQL databases. Without learning other classes and methods, developers can utilize the same API to work with multiple databases, such as MongoDB and ArangoDB. This approach enhances developer productivity and reduces the learning curve of integrating various NoSQL databases.

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While the Jakarta Persistence specification is commonly used for relational databases, it is unsuitable for NoSQL databases due to the fundamental differences in behavior and data models. Eclipse JNoSQL acknowledges these differences and provides a dedicated API explicitly designed for NoSQL databases, enabling developers to effectively leverage the unique capabilities of each NoSQL database.

Additionally, when working with the graph database implementation in Eclipse JNoSQL, it utilizes Apache TinkerPop, a standard interface for interacting with graph databases. By leveraging Apache TinkerPop, Eclipse JNoSQL ensures compatibility with various graph database vendors, allowing developers to work seamlessly with different graph databases using a consistent API. This standardization simplifies graph database integration, promotes interoperability, and empowers developers to harness the full potential of graph data in enterprise applications.

Eclipse JNoSQL simplifies Java and NoSQL database integration for enterprise applications. It provides a unified API, allowing developers to focus on business logic while seamlessly working with different NoSQL databases. Developers can explore the benefits of NoSQL databases without learning multiple APIs, thereby improving development efficiency and reducing the cognitive load associated with integrating diverse data sources.

Eclipse JNoSQL is an advanced Java framework that facilitates seamless integration between Java applications and various persistence layers, explicitly focusing on NoSQL databases. It supports two key specifications under the Jakarta EE umbrella: Jakarta Data and Jakarta NoSQL.

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  • Jakarta Data simplifies the integration process between Java applications and different persistence layers. It provides a unified repository interface that allows developers to work with multiple persistence layers using a single interface. This feature eliminates the need to learn and adapt to different APIs for each persistence layer, streamlining the development process. Additionally, Jakarta Data introduces a user-friendly and intuitive approach to handling pagination, making it easier for developers to manage large datasets efficiently. Eclipse JNoSQL extends Jakarta Data's capabilities to support pagination within NoSQL databases, enhancing the overall data management experience.

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  • Jakarta NoSQL: On the other hand, Jakarta NoSQL focuses on working with NoSQL databases. It offers a fluent API that simplifies the interaction with various NoSQL databases. This API provides a consistent and intuitive way to perform operations and queries within the NoSQL data model. By leveraging Jakarta NoSQL, developers can harness the power of NoSQL databases while enjoying the benefits of a standardized and cohesive API, reducing the learning curve associated with working with different NoSQL databases.

Eclipse JNoSQL provides comprehensive support for integrating Java applications with persistence layers. Jakarta Data enables seamless integration across different persistence layers, and Jakarta NoSQL specifically caters to NoSQL databases. These specifications enhance developer productivity, reduce complexity, and promote interoperability within the Jakarta ecosystem, empowering developers to work efficiently with traditional and NoSQL data stores.

What’s New in Eclipse JNoSQL 1.0.0

Eclipse JNoSQL 1.0.0 has some exciting features. These upgrades improve the framework's abilities and simplify connecting Java with NoSQL databases.

  • More straightforward database configuration: One of the notable enhancements is the introduction of simplified database configuration. Developers can now easily configure and connect to NoSQL databases without the need for complex and time-consuming setup procedures. This feature significantly reduces the initial setup overhead and allows developers to focus more on the core aspects of their application development.
  • Improved Java Record support: The latest update  includes enhanced support for Java Records - a new feature introduced in Java 14 that allows for the concise and convenient creation of immutable data objects. This update enables developers to easily map Java Records to NoSQL data structures, making data handling more efficient and effortless. This improvement also leads to better code readability, maintainability, and overall productivity in development.
  • Several bug fixes: Eclipse JNoSQL 1.0.0 introduces new features and fixes several bugs reported by the developer community.
  • Enhanced repository interfaces: The latest version comes with improved repository interfaces that effectively connect Java applications and NoSQL databases. These interfaces support a higher level of abstraction, making it easier for developers to interact with databases, retrieve and store data, and perform query operations. The updated repository interfaces in Eclipse JNoSQL also offer enhanced functionality, providing developers with greater flexibility and ease of performing database operations.

Eclipse JNoSQL 1.0.0 has introduced new features that improve the integration between Java and NoSQL databases. With these enhancements, developers can more efficiently utilize the full potential of NoSQL databases in their Java applications. These improvements also allow developers to focus on building innovative solutions rather than dealing with database integration complexities.

Show Me the Code

We will now dive into a live code session where we create a simple Pet application that integrates with a MongoDB database. While we acknowledge the popularity of MongoDB, it's important to note that the concepts discussed here can be applied to other document databases, such as ArangoDB.

Before we proceed, it's essential to ensure that the minimum requirements for Eclipse JNoSQL 1.0.0 are met. This includes Java 17, the Jakarta Contexts and Dependency Injection (CDI) specification, the Jakarta JSON Binding (JSON-B) specification and the Jakarta JSON Processing (JSON-P) specification that are compatible with Jakarta EE 10. Additionally, the Eclipse MicroProfile Config specification, version 3.0 or higher, is also required. Any Jakarta EE vendor compatible with version 10.0 and Eclipse MicroProfile Config 3.0 or any MicroProfile vendor compatible with version 6.0 or higher can run Eclipse JNoSQL. This broad compatibility allows flexibility in choosing a compatible Jakarta EE or MicroProfile vendor.

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It's important to note that while we focus on the live code session, this article will not cover the installation and usage of MongoDB in production or recommend specific solutions like DBaaS with MongoDB Atlas. For demonstration purposes, feel free to install and use MongoDB in any preferred way. The article will use a simple Docker command to set up a database instance.

docker run -d --name mongodb-instance -p 27017:27017 mongo

Now that we have met the prerequisites, we are ready to proceed with the live code session, building and executing the Pet application that leverages Eclipse JNoSQL to interact with the MongoDB database.

In the next step, we will include Eclipse JNoSQL into the project, making it easier to handle dependencies and simplify the configuration process. The updated version of Eclipse JNoSQL streamlines the inclusion of dependencies, eliminating the need to individually add multiple dependencies.

To get started, we can explore the available databases repositories to determine which database we want to use and the required configurations. In our case, we will be using the MongoDB database. You can find MongoDB's necessary credentials and dependencies at this GitHub repository.

If you are using a Maven project, you can include the MongoDB dependency by adding the following dependency to your project's pom.xml file:

<dependency>
  <groupId>org.eclipse.jnosql.databases</groupId>
  <artifactId>jnosql-mongodb</artifactId>
  <version>1.0.0</version>
</dependency>

By adding this dependency, Eclipse JNoSQL will handle all the configurations and dependencies required to work with MongoDB in your project. This streamlined process simplifies the setup and integration, allowing you to focus on developing your Pet application without getting caught up in complex dependency management.

With Eclipse JNoSQL integrated into the project and the MongoDB dependency added, we are ready to explore leveraging its features and effectively interacting with the MongoDB database.

When integrating Eclipse JNoSQL with the MongoDB database, we can use the power of the Eclipse MicroProfile Config specification to handle the necessary credentials and configuration information. Eclipse MicroProfile Config allows us to conveniently overwrite these configurations through system environment variables, providing flexibility and adhering to the principles and practice of the Twelve-Factor App.

For example, we can define the MongoDB connection's database name and host URL in an Eclipse MicroProfile Config configuration file (usually microprofile-config.properties). Here are the sample configurations:

jnosql.document.database=pets
jnosql.mongodb.host=localhost:27017

These configurations specify that the database name is pets and the MongoDB host URL is localhost:27017. However, instead of hardcoding these values, Eclipse MicroProfile Config can overwrite them based on system environment variables. This approach allows the development team to dynamically configure the database credentials and connection details without modifying the application code. The configurations will automatically be overwritten at runtime by setting environment variables, such as JNOSQL_DOCUMENT_DATABASE and JNOSQL_MONGODB_HOST. This flexibility ensures easy configuration management across different environments without requiring manual changes.

The combination of Eclipse MicroProfile Config and Eclipse JNoSQL enables the development of Twelve-Factor Apps, which adhere to best practices for modern cloud-native application development. It provides a seamless way to handle configuration management, making it easier to adapt the application to different environments and promoting a consistent deployment process. We can achieve a highly configurable and portable solution that aligns with the principles of modern application development.

To proceed with the implementation, we will create a model for our sample application, focusing on the pet world. In this case, we will restrict the pets to cats and dogs, and we will define their name and breed, which cannot be changed once created.

We will utilize Java records to achieve immutability, which provides a concise and convenient way to define immutable data objects. We will create two records, Dog and Cat, implementing the Pet interface.

Here is an example of the code structure:
 

public sealed interface Pet permits Cat, Dog {

    String name();
    String breed();
}

@Entity
public record Dog(@Id String id, @Column String name, @Column String breed) implements Pet {

    public static Dog create(Faker faker) {
        var dog = faker.dog();
        return new Dog(UUID.randomUUID().toString(), dog.name(), dog.breed());
    }
}

@Entity
public record Cat(@Id String id, @Column String name, @Column String breed) implements Pet {

    public static Cat create(Faker faker) {
        var cat = faker.cat();
        return new Cat(UUID.randomUUID().toString(), cat.name(), cat.breed());
    }
}

The above code defines the Pet interface as a sealed interface, allowing only the Cat and Dog records to implement it. Both records contain the field's id, name, and breed. The @Id and @Column annotations mark the fields as identifiers and persistable attributes, respectively. The records also implement the Pet interface.

Additionally, static factory methods are included in each record to generate a new instance of a Dog or a Cat using a Faker object from the Java Faker project, a library for generating fake data.

With this modeling structure, we achieve immutability, define the necessary annotations to mark the classes as entities, and provide the essential attributes for persisting the pets in the database. This approach aligns with modern Java frameworks and facilitates the integration of the pet objects with the MongoDB database through Eclipse JNoSQL.

Now, let's see the code in action! We can utilize the Template interface provided by Eclipse JNoSQL to seamlessly perform operations with the NoSQL database. Depending on the specific requirements, we can explore specialized interfaces such as DocumentTemplate for document databases or provider-specific templates like MongoDBTemplate for MongoDB.

An example code snippet demonstrating some essential operations using the Jakarta NoSQL API:

@Inject
Template template;

// ...

var faker = new Faker();
var cat = Cat.create(faker);
template.insert(cat);

Optional<Cat> optional = template.find(Cat.class, cat.id());
System.out.println("The result: " + optional);

for (int index = 0; index < 100; index++) {
    template.insert(Cat.create(faker));
}
List<Cat> result = template.select(Cat.class).where("breed").eq(cat.breed()).result();
System.out.println("The query by breed: " + result);

template.delete(Cat.class, cat.id());

In the code snippet above, we first inject the Template interface using CDI. Then, we create a new Cat object using the Java Faker library and insert it into the database using the insert() method.

We can retrieve the inserted Cat object from the database using the find() method, which returns an object of type Optional. In this case, we print the result to the console.

Next, we insert 100 more randomly generated cat objects into the database using a loop.

We query using the select() method, filtering the cat objects by the breed attribute. The result is stored in a list and printed to the console.

Finally, we delete the previously inserted cat object from the database using the delete() method.

Using the Jakarta NoSQL API and the Template interface, we can perform various operations with the NoSQL database without being aware of the specific implementation details. Eclipse JNoSQL handles the underlying database operations, allowing developers to focus on writing concise and efficient code for their applications.

This code demonstrates the power and simplicity of working with NoSQL databases using Eclipse JNoSQL in a Jakarta EE application.

Pagination is a common requirement when working with large datasets. In this case, we can leverage the Jakarta Data specification and the repository feature to seamlessly handle pagination. By creating interfaces that extend the appropriate repository interface, such as PageableRepository, the framework will automatically implement the necessary methods for us.

Here's an example of how we can integrate pagination into our Cat and Dog repositories:

@Repository
public interface CatRepository extends PageableRepository<Cat, String>, PetQueries<Cat> {
}

@Repository
public interface DogRepository extends PageableRepository<Dog, String>, PetQueries<Dog> {
    default Dog register(Dog dog, Event<Pet> event) {
        event.fire(dog);
        return this.save(dog);
    }
}

public interface PetQueries<T extends Pet> {
    List<T> findByName(String name);

    List<T> findByBreed(String breed);
}

In the code above, we define two repository interfaces, CatRepository and DogRepository, which extend the PageableRepository interface. It allows us to perform pagination queries on the Cat and Dog entities.

Additionally, we introduce a PetQueries interface that defines standard query methods for both Cat and Dog entities. This interface can be shared among multiple repositories, allowing code reuse and modularization.

In the DogRepository, we also showcase using default methods that have been available since Java 8. We define a custom method, register, which triggers an event and saves the dog object. It demonstrates the flexibility of adding custom business logic to the repository interface while benefiting from the framework's underlying repository implementation.

By leveraging the repository feature and implementing the appropriate interfaces, Eclipse JNoSQL handles the implementation details for us. We can now seamlessly perform pagination queries and execute custom methods with ease.

This integration of pagination and repository interfaces demonstrates how Eclipse JNoSQL, in combination with Jakarta Data, simplifies the development process and promotes code reuse and modularization within the context of a Jakarta EE application.

Let's put the pagination into action by injecting the DogRepository and using it to perform the pagination operations. The code snippet below demonstrates this in action:

@Inject
DogRepository repository;
@Inject
Event<Pet> event;
var faker = new Faker();
var dog = Dog.create(faker);
repository.register(dog, event);
for (int index = 0; index < 100; index++) {
    repository.save(Dog.create(faker));
}
Pageable pageable = Pageable.ofSize(10).sortBy(Sort.asc("name"), Sort.asc("breed"));
Page<Dog> dogs = repository.findAll(pageable);
while (dogs.hasContent()) {
    System.out.println("The page number: " + pageable.page());
    System.out.println("The dogs: " + dogs.stream().count());
    System.out.println("\n\n");
    pageable = pageable.next();
    dogs = repository.findAll(pageable);
}
repository.deleteAll();

In the code above, we first inject the DogRepository and Event<Pet> using CDI. We then create a new dog using the Java Faker library and register it by calling the repository.register() method. The register() method also triggers an event using the Event<Pet> object.

Next, we generate and save 100 more dogs into the database using a loop and the repository.save() method.

To perform pagination, we create a Pageable object with a page size of 10 and sort the dogs by name and breed in ascending order. We then call the repository.findAll() method passing the Pageable object to retrieve the first page of dogs.

We iterate over the pages using a while loop and print the page number and the number of dogs on each page. We update the Pageable object to the next page using the pageable.next() method and call repository.findAll() again to fetch the next page of dogs. Finally, we call repository.deleteAll() to delete all dogs from the database.

This code demonstrates the pagination feature, retrieving dogs in batches based on the defined page size and sorting criteria. It provides a convenient way to handle large datasets and display them to users in a more manageable manner.

In this code session, we witnessed the seamless integration between Eclipse JNoSQL and a MongoDB database in a Jakarta EE application. We explored the power of Eclipse JNoSQL, Jakarta Data, and Eclipse MicroProfile Config in simplifying the development process and enhancing the capabilities of our pet application.

The code showcased the modeling of pets using Java records and annotations, immutability, and entity mapping. We leveraged the Template interface to effortlessly perform operations with the MongoDB database. Pagination was implemented using Jakarta Data's PageableRepository, providing an easy way to handle large datasets.

Using Eclipse MicroProfile Config enabled dynamic configuration management, allowing us to easily overwrite properties using system environment variables. This flexibility aligned with the Twelve-Factor App principles, making our application more adaptable and portable across environments.

The complete code for this session is available at jnosql-1-0-se. Additionally, you can explore more samples and demos with Java SE and Java EE at the following links: demos-se and demos-ee.

By utilizing Eclipse JNoSQL and its associated repositories, developers can harness the power of NoSQL databases while enjoying the simplicity and flexibility provided by the Jakarta EE and MicroProfile ecosystems. 

Eclipse JNoSQL empowers developers to focus on business logic and application development, abstracting away the complexities of NoSQL integration and allowing for a seamless exploration of polyglot persistence.

Quarkus Integration

One of the standout features in this release is the integration of Eclipse JNoSQL with Quarkus, a popular and highly efficient framework in the market. This integration is available as a separate module, providing seamless compatibility between Eclipse JNoSQL and Quarkus.

Integrating with Quarkus expands the possibilities for using Eclipse JNoSQL in your applications. You can now leverage the power of Eclipse JNoSQL with Quarkus' lightweight, cloud-native runtime environment. The integration module currently supports ArangoDB, DynamoDB, Redis, Elasticsearch, MongoDB, and Cassandra databases, thanks to the significant contributions from Maximillian Arruda and Alessandro Moscatelli.

To stay updated on the communication and new updates between Quarkus and Eclipse JNoSQL, you can follow the repository at quarkiverse/quarkus-jnosql.

To start a project from scratch, you can explore the Quarkus extension for Eclipse JNoSQL at Quarkus.io - Eclipse JNoSQL.

To conclude this session, let's look at three classes: Fish as an entity, FishService as a service, and FishResource as a resource. We can create a REST API for managing fish data with these classes. This sample introduces a fun twist by focusing on fish as pet animals, adding a post-tech pet-friendly touch.

@Entity
public class Fish {
    @Id
    public String id;
    @Column
    public String name;
    @Column
    public String color;
    // getters and setters
}
@ApplicationScoped
public class FishService {
    @Inject
    private DocumentTemplate template;
    private Faker faker = new Faker();
    public List<Fish> findAll() {
        return template.select(Fish.class).result();
    }
    public Fish insert(Fish fish) {
        fish.id = UUID.randomUUID().toString();
        return this.template.insert(fish);
    }
    public void delete(String id) {
        this.template.delete(Fish.class, id);
    }
    public Optional<Fish> findById(String id) {
        return this.template.find(Fish.class, id);
    }
    // other methods
}
@Path("/fishes")
@ApplicationScoped
public class FishResource {
    @Inject
    private FishService service;
    @GET
    @Path("{id}")
    public Fish findId(@PathParam("id") String id) {
        return service.findById(id)
                .orElseThrow(() -> new WebApplicationException(Response.Status.NOT_FOUND));
    }
    @GET
    @Path("random")
    public Fish random() {
       return service.random();
    }
    @GET
    public List<Fish> findAll() {
       return this.service.findAll();
    }
    @POST
    public Fish insert(Fish fish) {
        fish.id = null;
        return this.service.insert(fish);
    }
    @PUT
    @Path("{id}")
    public Fish update(@PathParam("id") String id, Fish fish) {
       return this.service.update(id, fish)
               .orElseThrow(() -> new WebApplicationException(Response.Status.NOT_FOUND));
    }
    @DELETE
    @Path("{id}")
    public void delete(@PathParam("id") String id) {
        this.service.delete(id);
    }
}

The provided classes demonstrate the implementation of a REST API for managing fish data. The Fish class represents the entity, with name, color, and id as its properties. The FishService class provides methods for interacting with the fish data using the DocumentTemplate. Finally, the FishResource class serves as the REST resource, handling the HTTP requests and delegating the operations to the FishService.

You can find the detailed code for this example at quarkus-mongodb. With this code, you can explore the integration between Eclipse JNoSQL and Quarkus, building a pet-friendly REST API for managing fish data.

Conclusion

The release of Eclipse JNoSQL 1.0.0 marks a significant milestone in NoSQL database integration with Java applications. With its rich features and seamless compatibility with Jakarta EE, Eclipse MicroProfile, and now Quarkus, Eclipse JNoSQL empowers developers to leverage the full potential of NoSQL databases in modern enterprise applications.

The integration with Quarkus opens up new possibilities for developers, allowing them to harness the power of Eclipse JNoSQL in Quarkus' lightweight, cloud-native runtime environment. With support for popular databases like ArangoDB, DynamoDB, Redis, Elasticsearch, MongoDB, and Cassandra, developers can choose the suitable database for their specific needs and easily switch between them.

Throughout this article, we explored the core features of Eclipse JNoSQL, including the unified API for various NoSQL databases, the use of Jakarta Data and repository interfaces for seamless integration, and the benefits of using Java records and annotations for entity mapping and immutability.

We witnessed how Eclipse JNoSQL simplifies the development process, abstracting away the complexities of NoSQL database integration and allowing developers to focus on writing clean, efficient code. The seamless integration with Eclipse MicroProfile Config further enhances flexibility, enabling dynamic configuration management.

Moreover, the demonstration of building a pet-friendly REST API using Eclipse JNoSQL showcased its simplicity and effectiveness in real-world scenarios. We explored the usage of repositories, pagination, and standard query methods, highlighting the power of Eclipse JNoSQL in handling large datasets and delivering efficient database operations.

As Eclipse JNoSQL continues to evolve, it offers developers an extensive range of options and flexibility in working with NoSQL databases. The vibrant community and ongoing contributions ensure that Eclipse JNoSQL remains at the forefront of NoSQL database integration in the Java ecosystem.

Eclipse JNoSQL 1.0.0 empowers developers to seamlessly integrate NoSQL databases into their Java applications, providing a powerful and efficient solution for modern enterprise needs.

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