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Java Vs Node.JS for Backend APIs – Developer’s Comparison

Java is considered as the best application development language. It is an object-oriented programming language which is used to create efficient quality applications for both computers and mobile phones. Java dominates Android phones, enterprise computing, and some embedded worlds like Blu-ray disks. While on the other hand Node.JS is a programming platform that allows you to write JavaScript on both the client side and the server side, mostly server-side code that is identical in syntax to browser JavaScript

It opens up new perspectives, still having its “browser” nature. The developers use both the languages to develop applications depending on the preference and the need of application. Let’s dive into Java vs Node.JS comparison to understand the two technologies better.

Java vs Node.js comparison

Ubiquity in Node.JS

With Node.js, JavaScript finds a home on the server and in the browser. The code you write for one will more than likely run the same way on both. It’s much easier to stick with JavaScript for both sides of the client/server divide than it is to write something once in Java and again in JavaScript, which you would likely need to do if you decided to move business logic you wrote in Java for the server to the browser or insisted that the logic you built for the browser be moved to the server. In either direction, Node.js and JavaScript make it much easier to migrate code.

Java has Better IDEs

Java developers have Eclipse, NetBeans, or IntelliJ, three top-notch tools that integrate well with debuggers, decompilers, and servers. Each has years of development, dedicated users, and solid ecosystems filled with plug-ins.

Meanwhile, most Node.js developers type words into the command line and code into their favorite text editor. Some use Eclipse or Visual Studio, both of which support Node.js. Of course, the surge of interest in Node.js means new tools are arriving, some of which, like IBM’s Node-RED offer intriguing approaches, but they’re still a long way from being as complete as Eclipse. WebStorm, for instance, is a solid commercial tool from JetBrains, linking in many command-line build tools.

Of course, if you’re looking for an IDE that edits and juggles tools, the new tools that support Node.js are good enough. But if you ask your IDE to let you edit while you operate on the running source code like a heart surgeon slice open a chest, well, Java tools are much more powerful. It’s all there, and it’s all local.

With Node.JS Build process simplified by using the same Language

Complicated build tools like Ant and Maven have revolutionized Java programming. But there’s only one issue. You write the specification in XML, a data format that wasn’t designed to support programming logic. Sure, it’s relatively easy to express branching with nested tags, but there’s still something annoying about switching gears from Java to XML merely to build something.

Java for Remote Debugging

Java boasts incredible tools for monitoring clusters of machines. There are deep hooks into the JVM and elaborate profiling tools to help identify bottlenecks and failures. The Java enterprise stack runs some of the most sophisticated servers on the planet, and the companies that use those servers have demanded the very best in telemetry. All of these monitoring and debugging tools are quite mature and ready for you to deploy.

Java for Libraries

There is a huge collection of libraries available in Java, and they offer some of the more serious work around. Text indexing tools like Lucene and computer vision toolkits like OpenCV are two examples of great open source projects that are ready to be the foundation of a serious project. There are plenty of libraries written in JavaScript and some of them are amazing, but the depth and quality of the Java code base is superior.

Node.JS for JSON

When databases spit out the answers, Java goes to elaborate lengths to turn the results into Java objects. Developers will argue for hours about POJO mappings, Hibernate, and other tools. Configuring them can take hours or even days. Eventually, the Java code gets Java objects after all of the conversions.

Many Web services and databases return data in JSON, a natural part of JavaScript. The format is now so common and useful that many Java developers use the JSON formats, so a number of good JSON parsers are available as Java libraries as well. But JSON is part of the foundation of JavaScript. You don’t need libraries. It’s all there and ready to go.

Java for Solid Engineering

It’s a bit hard to quantify, but many of the complex packages for serious scientific work are written in Java because Java has strong mathematical foundations. Sun spent a long time sweating the details of the utility classes and it shows. There are BigIntegers, elaborate IO routines, and complex Date code with implementations of both Gregorian and Julian calendars.

JavaScript is fine for simple tasks, but there’s plenty of confusion in the guts. One easy way to see this is in JavaScript’s three different results for functions that don’t have answers: undefined, NaN, and null. Which is right? Well, each has its role — one of which is to drive programmers nuts trying to keep them straight. Issues about the weirder corners of the language rarely cause problems for simple form work, but they don’t feel like a good foundation for complex mathematical and type work.

Java statistics

Java for Threads

Fast code is great, but it’s usually more important that it be correct. Here is where Java’s extra features make sense.

Java’s Web servers are multi-threaded. Creating multiple threads may take time and memory, but it pays off. If one thread deadlocks, the others continue. If one thread requires longer computation, the other threads aren’t starved for attention (usually).

However, even if one Node.js request runs too slowly, everything slows down. There’s only one thread in Node.js, and it will get to your event when it’s good and ready. It may look super fast, but underneath it uses the same architecture as a one-window post office in the week before Christmas.

There have been decades of work devoted to building smart operating systems that can juggle many different processes at the same time. Why go back in time to the ’60s when computers could handle only one thread?

Node.JS for Momentum

Yes, all of our grandparents’ lessons about thrift are true. Waste not; want not. It can be painful to watch Silicon Valley’s foolish devotion to the “new” and “disruptive,” but sometimes cleaning out the craft makes the most sense. Yes, Java can keep up, but there’s old code everywhere. Sure, Java has new IO routines, but it also has old IO routines. Plenty of applet and until classes can get in the way.

Java Vs Node.JS : Final Thoughts

On one side are the deep foundations of solid engineering and architecture. On the other side are simplicity and ubiquity. Will the old-school compiler-driven world of Java hold its ground, or will the speed and flexibility of Node.js help JavaScript continue to gobble up everything in its path?

I hope this article helped you understand Java vs Node.JS from developers’ perspectives. For futher queries and doubts, feel free to drop a word at hello@mantralabsglobal.com.

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General FAQs

Which is better? Java or Node.js?

Java dominates enterprise computing applications, whereas, Node.js allows you to write both client and server programs using Javascript. Considering the ease of development, Node.js is better, but from application performance and security point of view, Java is the best.

Which is faster? Node.js or Java?

Java is faster than Node.js. Java relies on multi-thread architecture. Creating multiple threads may take time and memory, but it pays off. If one thread deadlocks, the others continue. Whereas, there is only one thread in Node.js. If one request runs too slowly, everything slows down.

Will Node.js replace Java?

Given the preferences for more UI-focused and Javascript-based applications, Node.js has the potential to replace Java. Node.js is also integral to MEAN stack, and today, the world demands more of MEAN stack developers and not full-stack ones.

Does Node.js require Java?

Node.js and Java are two completely different technologies. Javascript is essentially a clien-side programming language. But, Node enhances its capabilities to code server-side programs in Javascript. Again, Javascript and Java are different and Javascript is not a part of the Java platform.

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Design Systems: Building and Maintaining Consistent UI/UX

In the world of product design, consistency is the cornerstone of delivering a seamless user experience. As digital products evolve and scale, the challenge of maintaining design consistency across multiple platforms, teams, and touchpoints becomes more complex. This is where design systems come in. A design system is a comprehensive set of guidelines, components, and tools that help designers and developers create a consistent and cohesive user interface (UI) and user experience (UX). From a designer’s perspective, building and maintaining a design system requires a strategic approach to ensure scalability, flexibility, and alignment with business goals.

Why Design Systems Matter?

Design systems are more than just style guides or pattern libraries. They offer a unified language for design and development, bridging the gap between creativity and functionality. Here are a few reasons why they are critical:

  1. Consistency Across Products

      One of the primary goals of a design system is to ensure uniformity across different platforms and devices. When users interact with a product, whether on a website or a mobile app, they expect a consistent experience. A well-implemented design system ensures that visual elements, interactions, and behaviors are aligned, offering a familiar and intuitive experience for users.

2. Faster Iteration

      With a design system in place, teams can reuse components and patterns rather than reinventing the wheel for each new feature. This speeds up the design and development process, allowing teams to focus on solving new problems instead of reworking existing designs. For designers, it means less time spent on repetitive tasks and more time dedicated to innovation.

3. Scalability

     As products grow and new features are added, maintaining a coherent UI/UX without a design system can become chaotic. A design system provides a scalable framework, enabling teams to add new elements or modules without compromising the overall consistency of the product.

4. Improved Collaboration

      A design system fosters collaboration between designers, developers, and other stakeholders by providing a shared language and reference point. This ensures that design decisions are communicated effectively, reducing friction and misunderstandings between teams.

Building a Design System: A Designer’s Perspective

Designing a system from scratch can seem like a daunting task, but with a clear roadmap and understanding of core principles, it becomes a powerful tool for creating scalable and user-centered products.

1. Define the Core Principles

Before diving into visual components, it’s essential to establish the core principles of your design system. These principles serve as the foundation and guide decision-making throughout the process. Ask yourself:

• What are the key values of your brand?

• How should the design reflect the needs and emotions of users?

• What goals are you trying to achieve with your design system (e.g., accessibility, flexibility, innovation)?

   For instance, if accessibility is a top priority, you’ll need to ensure that your design system accommodates users with different abilities, by providing color contrast guidelines, clear typographic hierarchies, and accessible components.

2. Create a Unified Visual Language

Once the principles are established, the next step is creating a cohesive visual language. This includes defining elements such as:

Color Palette: A well-structured color palette ensures harmony across different UI components. It’s crucial to include primary, secondary, and accent colors, along with usage guidelines to avoid inconsistency.

Typography: Define a typography system that establishes hierarchies and clarity, including font styles, sizes, line heights, and spacing. Consistent typography helps users navigate content effortlessly.

Spacing and Grids: An established grid system ensures a balanced layout and harmony between different UI elements. Proper spacing guidelines prevent crowded or misaligned components.

Iconography and Illustrations: Design guidelines for icons and illustrations help maintain visual consistency. Icons should follow a standard style (outlined, filled) and size, ensuring they align with the overall visual language.

(I

Iconography and Illustrations: Design guidelines for icons and illustrations help maintain visual consistency. Icons should follow a standard style (outlined, filled) and size, ensuring they align with the overall visual language.

Image Source: https://designerup.co/blog/10-best-design-systems-and-how-to-learn-and-steal-from-them/)

3. Design Reusable Components

A design system is incomplete without reusable UI components. These components include buttons, forms, modals, and navigation elements that can be used across various features and pages. Each component should be:

Modular: Components should be flexible and adaptable for different contexts. For example, a button should have variations for different states (hover, active, disabled) and types (primary, secondary, destructive).

Documented: Each component needs comprehensive documentation that explains how it should be used, its variants, and the rules governing its application. This ensures consistency when different team members use the same component.

4. Implement Accessibility Guidelines

Accessibility should be at the forefront of every design system. As a designer, consider:

Color Contrast: Ensure sufficient contrast between text and background for readability.

Keyboard Navigation: Ensure that interactive components are navigable via keyboard for users who rely on keyboard shortcuts.

Responsive Design: Components should be responsive, adapting seamlessly across different screen sizes and devices.

Assistive Technologies: Design components should be compatible with screen readers and other assistive technologies to provide an inclusive experience.

Maintaining a Design System: Evolving with the Product

Once a design system is in place, the work doesn’t stop there. Maintaining it requires ongoing effort as the product evolves and new design challenges emerge. Here’s how designers can ensure the design system remains relevant and effective:

1. Regular Audits and Updates

A design system should be treated as a living document that evolves with the product. Regular audits are necessary to identify outdated or unused components. Designers should collaborate with developers to ensure new features are aligned with the existing design system, and updates should be documented to avoid fragmentation.

2. Version Control and Documentation

Version control is essential for keeping track of changes in the design system. Documenting why and how changes are made ensures that the design system grows in an organized manner. It also helps onboard new team members quickly, as they can reference updated guidelines.

3. Foster Collaboration Across Teams

Designers need to maintain an open line of communication with developers and other teams using the design system. Tools like Figma, Sketch, and Zeplin allow designers to share components and guidelines in real-time, fostering collaboration and ensuring that everyone is aligned.

Some well-known examples of design systems that have set benchmarks in the industry:

1. Google Material Design

  • URL: Material Design
  • Overview: Google’s Material Design is one of the most comprehensive design systems available. It provides guidelines on how to create visual, motion, and interaction design across platforms and devices. Material Design is known for its grid-based layouts, responsive animations, and depth effects like shadows and lighting.
  • Features:
    • Comprehensive color palettes, typography, and iconography.
    • Extensive component library (buttons, cards, etc.).
    • Customizable UI components for both web and mobile applications.

2. Salesforce Lightning Design System

  • URL: Salesforce Lightning
  • Overview: Salesforce’s Lightning Design System provides a comprehensive library of UI components and resources to help build applications on the Salesforce platform. It ensures a consistent experience across Salesforce products and enables developers to create custom apps easily.
  • Features:
    • Ready-to-use components, design tokens, and code snippets.
    • Comprehensive accessibility guidelines to ensure inclusivity.
    • Detailed documentation for developers to integrate components into Salesforce applications.

3. Microsoft Fluent Design System

  • URL: Fluent Design
  • Overview: Fluent Design is Microsoft’s design system, created to provide an engaging and scalable UI across all Microsoft products. It is heavily focused on interaction, animation, and motion while ensuring accessibility across various device ecosystems.
  • Features:
    • Focus on depth, motion, and light to create modern and interactive UIs.
    • Cross-platform components supporting web, desktop, and mobile applications.
    • Accessible components with detailed guidelines for developers.

Conclusion

Building and maintaining a design system is an investment that pays off in the long run. It ensures consistency across your product, improves collaboration between teams, and allows for faster iteration and scalability. For designers, a design system is more than a collection of reusable components — it’s a framework that enables you to create user-centric products with confidence and clarity. By embracing modularity, documentation, and accessibility, you’ll ensure that your design system remains a valuable asset as your product grows.

About the Author:

Shristi is a creative professional with a passion for visual storytelling. She recently transitioned from the world of video and motion graphics to the exciting field of product design at Mantra Labs. When she’s not designing, she enjoys watching movies, traveling, and sharing her experiences through vlogs.

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