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If you know how to ride a bike now and wait five years to ride one again, you’ll likely do just fine once you get back on. Bicycles are intuitive once you’ve learned how to ride them, and the basic design is unlikely to change over time and across bicycles. Reaching this level of usability in software is a little more difficult.
Developers and designers often have to iterate too rapidly to reach bicycle-level reliability, but the intuitive experience of a user logging onto your app as if they were hopping on a bicycle is still something we should aim for—and design systems are the best way to do so.
Even though it’s a high bar, this level of usability pays dividends. Users will adopt your app more readily (reducing churn), use it to greater effect (and feel the benefits), and strengthen your marketing efforts as engaged users recommend and amplify your app.
Building and using a design system is one of the best ways to clear this high bar because design systems allow development and design teams to build and ship quickly while relying on standardized components that reduce friction and confusion.
If you’ve ever encountered a bad design system, then you know the issue: A great one can lift you up, but a bad one can hold you back.
The key is to treat your design system like a fully-fledged product that must remain effective and dependable over time. Without enough investment, design systems will only offer marginal help; with enough investment, design systems can provide consistency and stability while improving the pace of development.
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Build design systems via iteration, not waterfall
For developers, design systems often feel like intrusions from the outside in. The design systems team might have their best interests at heart, but developers know that a bad process with good intentions will still likely lead to a bad product.
After all, developers are well-versed in building a product and iterating over time, with user feedback informing every iteration. Any whiff of a waterfall or waterfall-esque process – where teams build a product in a silo and release it all at once – will make them justifiably skeptical.
The solution is to focus on simplicity over comprehensiveness—at least at first—and build design systems bit by bit over time. By breaking the problem down, platform teams can build simple but essential features, prove the concept’s value, and get feedback that will inform the rest of the work.
Slack provides a good example of this methodology. Back in 2016, millions of people were using Slack, and the company’s codebase was, according to Zack Sultan, Lead Product Designer at Slack, “built in a way that favored time-to-market over maintainability, consistency, or reusability.”
Like many young companies, Slack prioritized finding and pursuing product/market fit before building a codebase suited for scalability and reliability. Some companies encounter breaking issues first and decide to reassess potential tech debt issues, but Slack kept ahead of itself.
“We never encountered a single breaking point in our user interface,” Sultan writes, “but rather a slowly cascading series of inconsistencies, quirks, and discrepancies.” The momentum of the business was growing, and as Slack added more product teams (and more products and features), components started to drift.
Questions soon abounded, Sultan writes. “What does a button look like in Slack? How do you build it? What words do you put in it? It was up to individual teams to make these decisions.”
Many companies correctly notice the problem and then build a mediocre solution by asking a group of developers to cook up a new design system in isolation. Some slowing down is to be expected as companies grow, but a design system developed this way can cause development to come to a screeching halt.
Slack was wary of this potential and focused on finding ways to rebuild and standardize its components without slowing down overall development. “It was a bit like taking a car engine apart piece by piece, and cleaning, repairing, and replacing each part while it accelerated down the highway,” Sultan writes.
Like building a minimum viable product (MVP), design systems need to have core features built well and not many features built poorly. Early on, you’re looking to demonstrate value–not comprehensiveness–even if it means building one single component really well.
“Just one component, thoroughly documented, was immediately valuable,” Sultan writes. By building components one at a time and ensuring each was complete and well done, they were able to create a “virtuous cycle for the system.”
The value of each component, as simple and small as each isolated chunk was, demonstrated the value of the work as a whole. Developers remained invested throughout, and Slack eventually launched its design system, Slack Kit.
Maintain design systems or lose them to tech debt
Let’s imagine, for a moment, that the platform team and design team have worked together – alongside developer feedback – to build the perfect design system. Every developer takes a look and gives it a thumbs up.
Why, then, could you take any one of those developers aside and hear some wariness in their voice when they talk about actually using the design system?
The issue is that developers are very familiar with what happens when a product doesn’t have a maintenance plan. They’ve built products that have fallen by the wayside and created beloved internal tools that managers deprioritized until they died. Eventually, even a great product will fall prey to tech debt if there’s no plan to keep it alive.
For teams building design systems, the solution is to build a flexible design system that they can iterate, maintain, and update over time.
Design systems, by their nature, tend to offer some level of standardization, but over-focusing on standardization can lead to an overly rigid system. If the design system is good, people might not complain at first, but if even a good system is hard to keep up to date and hard to use in non-standard scenarios, people will eventually stop using it.
Instead, platform teams need to build design systems with maintenance as a first principle and map each component across a spectrum of flexibility.
The team behind Encore, Spotify’s design system, faced the same issue we’ve talked about here. As the product changes and the development team grows, writes Charlie Backus, design systems engineer at Spotify, “it can sometimes seem like the team is outgrowing the current set of components and styles.”
As you can see in the selection above, there was a dire need for consistency, despite an equal need for teams to remain creative and driven.
To find a balance, Backus recommends teams develop “an abstract shared vocabulary around component properties” or ensure that the “base properties remain accessible for modification by end consumers.”
The best way to think about this strategy is to imagine a spectrum between configuration (high-abstraction components that developers pass additional parameters to in order to add varied behaviors) and customization (low-abstraction components that developers just add custom styles to).
This spectrum-based approach is useful because it forces teams to think about tradeoffs ahead of time.
On the one hand, as Backus writes, “A more abstract configuration approach can increase consistency and maintainability but at the risk of the system being a bottleneck for outgoing features.” By increasing abstraction, a design system can make development more consistent but potentially slow down development.
On the other hand, Backus continues, “The less abstract customization approach enables quicker feature development; however, the overall consistency of the product can suffer as a result.” Speed increases, in this case, but the likelihood of inconsistencies increases, too.
Backus recommends thinking about maturity to find your spot on the spectrum for any given component. “The more mature a product or feature is, the more beneficial and feasible a configuration approach is. However, the iterative and low-level nature of customization makes it more suitable for prototyping and features which are bespoke, or are still subject to change.”
Like in the Slack example, we’re incorporating concerns that lie outside the immediate purview of the design system. With Slack, they were thinking about the growth of the company, and with Spotify, they were thinking about the growth of features. Mature, well-tested, well-known features can be standardized, but new, still-growing, and one-off features require more flexibility.
Avoid rework by aligning developers and designers
Developers and designers alike often decry meetings, wishing they had more time and space to work. Don’t get us wrong – too many meetings can be a huge drag on focus – but a good meeting can also save you a lot of work. An aligned team, delayed by a meeting, will always be more effective than an unaligned team working hard on the wrong things.
This dynamic is true within teams and departments, but alignment issues can be much more severe between different departments. A development team and design team working on different things, for example, can end up negating each other’s work if the designs are for a feature that isn’t built yet and the feature is built for a design that hasn’t been sketched yet.
Design systems magnify this issue. If a design system isn’t well thought out, all the effort toward building one can be wasted if developers and designers don’t start out using it in an aligned way and maintain alignment over time.
As we said in the first section, the design system can’t feel like a third party designed from the outside in. In the same way, it can’t be a tool that developers and designers only call on occasionally or when absolutely necessary. Instead, a design system should be a language for the design and development teams—both a result of alignment and an anchor that continuously shows how well the teams are aligned.
To see what we mean when we refer to design systems as language, look at Airbnb. Back in 2016, Airbnb was growing rapidly and adding feature after feature. Karri Saarinen, then Principal Designer at Airbnb, writes, “One-off solutions aren’t inherently bad, but if they aren’t built upon a solid foundation, we eventually find ourselves having to pay back accrued technical and design debts.”
To reset these efforts and ensure ongoing sustainability, the Airbnb team looked toward language as a guiding metaphor. “Visual language is like any other language,” Saarinen writes. “Misunderstandings arise if the language is not shared and understood by everyone using it. As a product or team grows, the challenges within these modalities compound.”
Airbnb built a new language via a new design system by looking at where their old designs failed. “We started by auditing and printing out many of our designs, both old and new,” Saarinen writes. “Laying the flows side by side on a board, we could see where and how the experiences were breaking and where we needed to start making changes.”
By focusing on the miscommunications first, Airbnb was able to build a language that used a consensus understanding of shared components as its foundation. When teams like Airbnb align around design systems, they create a shared vocabulary that prevents expensive rework—the kind of alignment that no-code platforms that enable rapid iteration can further accelerate by letting developers and designers prototype and build together in real time.
“We felt that we were all working together towards the same idea,” Saarinen writes. “Reviewing our collective work at the end of each day, we began to see patterns emerge. We course-corrected when necessary and started defining our standardized components.”
The team knew they were onto something when, even before the design system was finalized, productivity and consistency sped up in tandem. “One day,” Saarinen remembers, “While putting together a last-minute prototype, our team was able to create nearly 50 screens within just a few hours by using the framework our library provided.”
The early and ongoing boosts to productivity and standardization were a result of building a design system like a shared language. By thinking of the design system first and foremost as a way for developers, designers, and others to communicate and understand each other, the entire company benefited.
Treat your design system like a basecamp
One of the biggest worries developers can feel when a platform team or engineering leader proposes a design system is the tension between the freedom to do new work and the restraints standardization can impose.
Developers often fear that design systems, even when they introduce welcome consistency, can inhibit experimental and exploratory work. Ultimately, developers want to code, and design systems can sometimes feel like a way of reducing coding to boilerplate work.
With this fear and its real risks in mind, companies have to take a different approach to making design systems work for developers: Design systems should be like basecamps for developers and designers on the frontiers of exploration.
The base camp is more stable than the frontier, and the work done there is more routine. In this metaphor, the ultimate purpose of the design system is to give designers and developers resources so that they can explore further with every trek. The design system acts as a dependable foundation, but it doesn’t replace all the work that needs to be done.
With the lessons we’ve outlined here—iterating over time, thinking carefully about flexibility and maintenance, and aligning developers and designers—you can create a design system that developers trust, one they will gladly return to before exploring further.
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I mean why not? After all, everything is on the web …
As of writing this article 100 Million+ companies have an online presence through their websites.
But AI is here! Does that mean Web Design is dead?
Not at all! AI is changing the game, yes. AI can assist with the heavy lifting, no doubt. But creativity and empathy? Those are things it’s still catching up on. We need to be realistic about what AI can do and separate the hype from practical applications.
In this beginner’s guide, we’ll cover the fundamentals of web design to get you started on your path to becoming the next Mark Wheeler.
I’ll also show you a case study without overwhelming you so you get a sense of what you’ll actually be doing as a Web designer. Hopefully, this will give you a practical understanding of what it’s like to work as a web designer and inspire you to learn more.
Let’s go.
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What Is Web Design?
Web design is the creation of visually appealing and functional websites. It involves planning, and designing (not coding) the structure and layout of a website and its content.
Wait, “and its content”?
Yes, more often than not, a company will not hire a separate content planner which can sometimes mean the designer takes on that responsibility. We’ll come back to that later.
Just like other design disciplines, web design also has humble beginnings. In the early 90s, websites were primarily text-based, focusing on information. As the web evolved, visual elements like images and graphics added engagement. Today a website can have hundreds of web elements. Buttons, text, fields, dropdowns, icons, video, sliders, gifs, checkmarks … you name it.
In web design, like many other fields, we face a common challenge: balancing form (how it looks) and function (how it works). This is why we have two specialties – UX for user experience and UI for user interface.
Many experts will categorize the web design process into many parts or phases.
But here is the industry standard:
Discovery Phase > IA and Wireframing > Visual Design > Prototyping > Testing
While these are important, they’re not what this post is about. This post is focused on the fundamental/core principles of web design. Let’s take a look:
The 7 Pillars of Web Design
Not to be mistaken with Principles of Web Design, These are one the first concepts every web designer must be familiar with. These pillars are the foundational elements that ensure a website is effective, engaging, and functional.
Pillar #1: Usability (UX)
Frustration doesn’t have to be vocalized! Usability in UX Design measures how effectively users can interact with and navigate a website to achieve their goals. Oh, and one of the most ubiquitous terms you’ll get used to as a web designer is actually “User Goals”.
What are User Goals? Let’s look at an example:
Sarah, a busy working mother, is looking for a birthday gift for her 7-year-old son. During her lunch hour at work, she uses her iPad to surf internet stores. Sarah’s primary goal is to buy a gift that her kid would enjoy, and her secondary goal is to make the transaction swiftly and effectively.
So, as a Designer, you want to LISTEN to these queues. If you’re designing an eCommerce store in this example, you’d wanna make sure that there are filters. Filters for gifts for example, and maybe you can go down to specifics of what kind of gifts and for what age.
Amazon has a collection of Gift Ideas for example. With sub-optimal filters … take a look:
On this page, Shara could filter by product category, but it’s hard for her to find filters for age range or toy color. And since she’s browsing on a tablet with weak eyesight, the font used in the filter section can be difficult to read – these are the kinds of usability issues that you try to solve.
So, To solve them you have to KNOW the user. There is a simple three-step process approach to getting to know the user:
Define Pain Points > Create Journey Maps > User Personas
We’ll use MOLDO: a sample case study project I was involved in as an example. “Moldo” is an online shopping app for furniture and interior ware.
To understand our users’ needs, my team conducted research through surveys. We analyzed the results, prioritized the feedback, and identified the most common pain points that users were experiencing:
Then, we analyzed the major phases the user will have to go through on the App, and for each phase, we mapped user emotions, actions, and opportunities.
And finally, we have our personas …
Great UX design should consider the following factors:
User’s Goals. As we already saw above: these are User Needs.
User’s Emotions. How does the user feel when using the product?
User’s Context. Where and how is the user using the product? Are there any environmental factors that affect the user’s experience?
You will need to put yourself in the user’s shoes so that ultimately you can be able to create an intuitive design.
What is intuitive design? A design that is easy to use and understand, even for first-time users. This means that the product should be developed to align with the user’s expectations and mental models.
Here is another example …
Our home page has a clear and prominent call to action – a form that explicitly tells users what they need to do next.
The text clearly states the purpose of the product, which is to design UI with code-backed components. It is concise and free of distractions, making it easy for the user to focus on the main message and CTA.
The initial CTA is “Try for free”, which guides the user to take action and try the product. And even tells the user that we prefer their work email.
Again, this is why UX always comes before UI. UX is the why, and UI is the how.
Make it functional, then make it pretty.
We’ve written extensively on this topic in our blog – like Heuristic Evaluation, and UX Requirements feel free to browse around after you finish reading this one.
UI Design focuses on the visual elements of a product, based on UX research findings. Visual elements are the ones a user directly interacts with, such as buttons, menus, and typography.
Its primary objective is to ensure that these interfaces are not only visually appealing but also user-friendly, enhancing overall satisfaction and efficiency in task completion.
I’ve been a UI Designer for half of my career, and let me tell ya, it’s fun. We worry about design movements, hierarchy, layout, interactions, and so on …
To start with, There are three types of UI Elements, Input, Output, and Helper elements, we cover them broadly in an article about UI elements, but let’s look at them quickly:
Input elements. These elements allow users to enter data into the interface. Examples include text fields, checkboxes, radio buttons, drop-down menus, and sliders.
Output elements. These elements display information to the user. Examples include labels, text, images, and icons.
Navigation elements. These elements allow users to move around. Examples include buttons, links, menus, and breadcrumbs.
The UI Design Process
As I mentioned before, UI Design mainly involves the visual design and prototyping (and testing phase shared between UX and UI) part of the design process.
Depending on who you ask, Wireframing is part of UI design. Wireframes are the blueprints for your interface. So it goes like this:
Usually, the UX Designer would provide the IA (Information Architecture) of the app/website, and based on that we can start sketching out the project design scope.
IA is just a fancy term meaning a graph or map of how the content and pages should be structured, and it usually looks something like this:
But it’s the foundation of Wireframing which is the next step.
We use wireframes to define page elements (buttons, forms, images), Arrange content (headers, sidebars, main content areas), and Show basic interactions (click paths, transitions).
You can create wireframes by hand (on paper) or digitally using tools like UXPin or Figma.
Getting back to the MOLDO example, here is what the wireframe looked like:
For most ecommerce products we found that the navigation was visually not inviting or was bulky. So we wanted to make sure that we have our UI balanced between obvious but not lame …
Beyond the optimized design itself, We also adjusted the size of buttons to be particularly bigger than what’s usually a standard in mobile apps.
The point of having a wireframe is to change and iterate to your heart’s content. As you progress through the design process there will naturally be less wiggle room so this is your way of telling your clients, “hey … here is what I’m thinking” and gathering feedback.
As you can see the wireframe stage makes it easy to know what goes where.
Next, you flesh out the Lo-fi and Hi-fi versions. Lo-fi usually is the flat but colored version of the wireframes. And Hi-fi almost looks like the real product. Sometimes we simply use a prototype and then a mockup.
You can see what a visual design prototype might look like in a design tool, with all the visual elements and layout finalized.
And then finally the polished Mockups … yay!
As UI Designers, we don’t only design how elements look but also how they behave during interactions. AKA animations.
And I’m not necessarily talking about transitions or motion animation.
Animations that guide and interact with the user in a way that feels natural, but consistent. That gives users feedback about their actions, so they know what’s happening.
We call these micro-interactions. are small, purposeful animations triggered by specific user actions (clicking a button, hovering over an icon … so on).
For example: When you click a button, it slightly depresses/shrinks to give visual feedback that your action has been registered.
UI Motion Principles
Consistency. As a user, Ishould experience familiar motion patterns across different parts of an application. I should be able to predict how interactions will unfold. If a button slides in from the right on one screen, it should do the same elsewhere.
Hierarchy. Primary actions (like submitting a form) deserve more attention than secondary ones (like canceling an operation). That’s just an example, but prioritize animations based on their importance within the user flow and website structure.
Realism. UI animations should mimic real-world physics to feel natural. Depending on what you’re going for Objects should accelerate when they start moving (ease-in) and decelerate when they stop (ease-out).
Context. Animations should align with the context and purpose of the interaction. A loading spinner during data retrieval makes sense. A playful bounce effect on a serious error message might not.
Pillar #3: Accessibility
Accessibility in UI design goes beyond just color. Color can not be used as the only way to convey information. Surely, many other disabilities are not related to the human eye.
According to a survey, more than 1 in 4 adults in the United States have some type of disability. That’s a population of more than 83.5M!
Accessibility refers to whether a product or service can be used by everyone, regardless of their abilities or disabilities.
Color Contrast and Text Legibility. Poor color contrast can make text difficult to read, especially for people with limited vision or color blindness. The solution is to use high-contrast combinations (e.g., dark text on a light background or vice versa). Avoid relying solely on color to convey information. Use additional cues like icons or patterns.
Alternative Text (ALT Text) for Images. People who use screen readers rely on ALT text to understand images. ALT text Describe the image’s purpose or content concisely.
Keyboard Navigation and Focus States. Some users rely on keyboard navigation (e.g., screen reader users or those with motor impairments). All interactive elements (buttons, links, form fields) should be keyboard-navigable.
Semantic HTML and ARIA Roles. Proper HTML structure aids screen readers and other assistive technologies. Learn more about ARIA attributes (Accessible Rich Internet Applications).
Captions and Transcripts for Multimedia. Deaf or hard-of-hearing users rely on captions for videos and audio content.
Forms and Error Handling. Forms are critical for user interaction, but poorly designed forms can be frustrating. Label form fields clearly and provide error messages in a perceivable way.
Test with Real Users. Real-world feedback is invaluable. Conduct usability testing with diverse users, including those with disabilities.
Pillar #4: Layout
Layout refers to the arrangement of visual elements within a given space. It is part of UI primarily but decided by factors in UX. A well-designed layout enhances user experience by making content easy to find and understand. Here are some common types of website layouts:
Grid Systems. In a grid-based website layout, elements like margins, flowlines, rows, columns, gutters, and modules work together to create a structured and visually appealing design. Margins define the edges, flowlines guide reading, rows and columns organize content, gutters provide spacing, and modules combine elements into organized groups.
Box Model. The box model represents how elements are rendered on a web page. It includes four components: margin, border, padding, and content.
Flexbox. A powerful layout mode that allows flexible and responsive designs.
Key properties include display: flex, flex-direction, and justify-content.
Using a flexbox system is perhaps the best choice for managing responsive layouts.
Here are the primary types of website layouts, that provide a solid foundation for understanding web design principles:
Fixed Width Layout. The content area has a fixed width, regardless of the screen size.
Fluid Layout. The content area expands or contracts to fit the width of the browser window.
Responsive Layout. A combination of fluid and fixed layouts, using CSS media queries or clamp functions to adjust the layout based on the screen size.
Adaptive Layout. Similar to a responsive layout except it’s specifically arranged in the most suitable way for each device. (Separate layout for each).
Grid Layout. A flexible layout that uses a grid system to organize content into columns and rows.
Learn more about website layouts and how they affect user psychology.
A fundamental principle that greatly impacts layout is balance, which web design relies on. Balance is all about distributing visual elements in a way that creates a sense of harmony.
Symmetrical Balance: Mirror-like fashion, creating a sense of formality and stability. This is often used in traditional designs and logos.
Asymmetrical Balance: Arranged in a way that is not symmetrical but still feels visually balanced. This can create a more dynamic and interesting composition.
Another thing to keep in mind when working with layouts is Negative Space. This is an overlooked design element that differentiates between a noob and a pro.
Did I say “design element”? Yes!
In fact, thinking about negative space as an active element in web design will help you understand how layout works. It’s obvious that when a webpage is cluttered with too many elements, it becomes overwhelming for users.
But what is the point where it stops becoming clutter?
For example, look at this:
Unless you’re intentionally aiming for a busy, maximalist aesthetic and it makes sense for your audience, this approach can be detrimental to focus.
Modern WebUI is almost always incorporated with negative space like this:
Pillar #5: Typography
Typography is the art and technique of arranging type/letters, numbers, and symbols to make written language legible, readable, and visually appealing when displayed.
It’s an entire field of its own.
But in our context of web design, it involves choosing fonts, adjusting the spacing between characters (kerning), the space between lines (leading), and the overall layout of the text. Good typography guides your eye across the page smoothly without making you think too much about it.
It’s a big deal because it’s directly connected to clients’ ROI. So let’s take a look at some typography basics:
Font Families
A font family is a group of fonts that share a common design style. Think of a typeface as a broad category of fonts that share a unified look and feel. Within a typeface, you’ll find individual fonts that vary in size, weight, and style.
Font families are classified into types: Serif, Sans-Serif, Monospace, Display and Handwriting.
Let’s focus on the first three:
Serif Fonts. Have small strokes (called serifs) at the edges of each letter. They exude formality and elegance. Think Times New Roman, Georgia, and Baskerville.
Sans-Serif Fonts. Mostly used on UI and are sleek and modern. They don’t have those little serifs just clean lines. Arial, Helvetica, and Open Sans.
Monospace fonts. Give every letter the same fixed width. Fonts like: Courier New, Consolas, and Inconsolata.
I once designed my own custom font, although I loved Proxima Nova. It took two months and gave me an insight into what works well on the web. It might even be one of the factors that I was nominated for Awwwards.
And from that experience, here are some tips that I’ve learned:
Use regular medium font weights and anywhere between 18-21px for body text.
Don’t use more than two types of fonts. And always stick to one font for the body.
When choosing a font for headlines or titles, feel free to explore more expressive options. Bold, playful, or unique fonts work well here.
Use a clamp function for responsive text.
Always use a different font style for links (usually bold or underlined).
Web-safe fonts, also known as system fonts, are pre-installed on most operating systems. These fonts are readily available to users without requiring any additional downloads.
These should only be used as either a fallback font or if your client only wants raw performance and doesn’t give a dime about custom fonts. Or if other overarching elements on the site compensate for it.
Google Fonts
Google fonts are hosted by Google, making them easy to incorporate into your web projects. You can use the API or directly download them and include them in your projects.
I think while we’re at it it’s good for you to familiarize yourself with some common terms. Like “Glyphs”. So here is a quick rundown:
Each letter, number, punctuation mark, or symbol is a glyph. X-Height is the height of lowercase letters (excluding ascenders and descenders).
Ascenders and Descenders? They are upward-bound strokes of lowercase letters that extend beyond the x-height. The baseline is the invisible tightrope where letters stand. It’s their foundation the ground level.
Kerning is the space between individual characters. And tracking controls the overall spacing across a block of text.
Responsive Design (not to be mistaken with Adaptive Design) is a web design approach that ensures a website adapts seamlessly to various screen sizes and devices
Responsiveness is the ability of a website to adapt its layout and content to different screen sizes and devices, such as smartphones, tablets, and desktops.
Design for mobile first!
It’s often easier to adapt a mobile design to a desktop than the other way around. Since larger screens can accommodate more content, it’s best to start by designing for mobile and prioritizing the most important elements.
Media Queries
Simple but if the user drags the window size they step towards the next set size.
Here is an example:
/* Tablets and smaller */
@media (max-width: 768px) {
.container {
width: 100%;
}
}
/* Mobile devices */
@media (max-width: 480px) {
.container {
width: 100%;
padding: 0 10px;
}
}
Clamp Function
The clamp() function in CSS lets you set a value that’s dynamic between a minimum and maximum. It adjusts based on the screen size or viewport width. So, instead of using media queries, you can have a property (like font size) scale naturally between limits.
Formula: clamp(minimum, preferred, maximum);
Example: Responsive Font Size with clamp()
h1 {
font-size: clamp(1.5rem, 5vw, 3rem); /* Between 24px and 48px */
}
With clamp(), you don’t need to set up media queries for every screen size. The text grows naturally between your set limits, and you don’t even have to calculate it by hand there are great free clamp() generators out there.
Responsive Images
Images can be a big hurdle when it comes to making a website responsive. They can slow down your site if not optimized, or worse, they might look distorted or too large on smaller screens. But, don’t worry, you’ve got a few tricks up your sleeve.
Srcset. The srcset attribute is for delivering different image sizes based on the device. You’re telling the browser “Hey, use this image for mobile, this one for tablet, and this one for desktop.”
Vector Images. SVGs (Scalable Vector Graphics) are amazing because they scale infinitely without losing quality. This makes them perfect for logos, icons, or any simple illustrations.
Image Optimization. Beyond just choosing the right size, you can optimize images to load faster using lazy loading. You can use Webp or any other modern web image format. Read more about what matters for web performance.
Flexible Grid Systems
While responsive images handle the visual content, flexible grids manage layouts across different devices. These grids allow your design to flow naturally, adjusting based on the screen size.
1. CSS Grid
CSS Grid allows you to define rows and columns that automatically adapt to the size of the screen.
While CSS Grid is perfect for two-dimensional layouts, Flexbox is awesome for one-dimensional layouts … think rows or columns.
Here’s how you can use Flexbox to build a simple responsive layout:
.container {
display: flex;
flex-wrap: wrap;
gap: 10px;
}
.item {
flex: 1 1 200px;
}
You can even combine both! For instance, use Flexbox to lay out different sections of your site, and then use Grid inside those sections for more complex layouts.
Now you need to think backwards FROM CSS towards your UI Design tool.
Pillar #7: HTML & Performance
Ultimately, your design will be brought to life in HTML, so having a basic understanding of HTML and CSS can be a huge advantage. It’s not a must for designers to know about this, but it sure helps a lot!
Browsers read HTML like a book, from top to bottom. They create a DOM (Document Object Model) as they go. The simpler this book, the faster it can be built. Believe it or not, it all starts with the designer.
If you’re a designer who understands this, you can start making decisions that not only look great but make life easier for the developer. For example, knowing how HTML is structured (with headers, paragraphs, images, and links) allows you to visualize how content will flow and stack across different devices. It also means you can avoid suggesting IMPOSSIBLE LAYOUTS that would take hours of unnecessary coding.
Benefits of Knowing Code as a Designer
Identify and troubleshoot design issues more efficiently.
Achieve precise control over the layout, typography, and styling of their designs, resulting in a more polished and professional final product.
Experiment with more advanced techniques and create innovative designs that might not be possible for designers who rely solely on visual tools.
Utilize a tool like UXPin much better because they can understand the code behind the elements.
The Handoff: Collaborating with Developers
The designer-developer handoff is often where dreams go to die, but it doesn’t have to be that way. Handoff is transferring a completed web design from the designer to the developer for implementation.
When you understand the basics of HTML and CSS, you’ll know what’s possible, what’s tricky, and how to meet halfway to create something that both looks great and works smoothly.
Developers will appreciate it, too, because you’ll be speaking their language or at least enough of it to avoid miscommunication.
Key Components of Handoff:
Design Files: These typically include:
PSD, Sketch, or Figma files: Contain the visual elements, layers, and styles of the design.
Style guides: Document the typography, colors, and other design elements used in the project.
Wireframes: Provide a basic structure and layout of the pages.
Specifications:
Measurements: Dimensions of elements, spacing, and padding.
Typography: Font families, sizes, weights, and line heights.
Colors: Hex codes or color names for all colors used in the design.
Interactions: Descriptions of how elements should behave when clicked, hovered over, or focused.
Annotations:
Notes and comments: Additional information or instructions for developers.
Placeholders: Indicate where content will be added dynamically.
Design with Implementation in Mind
When designing a responsive navigation bar, knowing that developers can use CSS Grid or Flexbox to make it dynamic can inform your design decisions. You’ll create a flexible layout that adapts to different screen sizes, rather than specifying rigid pixel values for each breakpoint.
This approach streamlines the design-to-development process, reducing the need for back-and-forth revisions. By showing that you’ve considered the build process, you’re more likely to earn the development team’s respect and ensure that your design is implemented as intended.”
Suggest Solutions, Not Just Problems
We’ve all been there – pouring our hearts into a design, only to have it rejected due to technical limitations. But what if you could turn those limitations into opportunities? By having a basic understanding of HTML and CSS, you can collaborate with developers to find alternative solutions that achieve the same visual effect.
For instance, if an animation is deemed too complex, you can suggest using CSS transitions or animations that are easier to implement. This way, you’re not just handing off your design and hoping for the best – you’re actively working with the development team to bring your vision to life.
There are different ways web design can be added as a skill set of other professions like a web developer, freelancer digital marketer and so on but here are the major roles you can embody as a web designer:
UI or UX Designer
Web Design Consultant
UX Researcher
Product Designer
UI/UX Designers and Product Designers are the most common. I’ve personally worked in these exact roles myself.
I just did a search on LinkedIn for “UI/UX Designer” and just today there are 1000+ offers available. And this is just in the United States.
Taking a peek at Indeed shows another 1000+ results:
The best platforms for finding web design jobs are:
Company Websites
Dribbble and Behance
Toptal
Linkedin and Upwork
Traditional Job Boards
Web-designers anywhere between $62K – $112K/yr according to GlassDoor.
You’d also be well-positioned to explore a wide range of entrepreneurial opportunities. Like freelancing, starting a web design agency, selling products, taking web design courses and workshops, and so on.
The Elements of User Experience by Jesse James Garrett
Laws of UX by Jon Yablonski
Conclusion
Even if you’re focused purely on the visual side of things, web design isn’t just about making things pretty. A site has to work in real-world conditions: it needs to load fast, be responsive, and be accessible. Knowing the pillars helps you think beyond the surface and consider what makes a site functional. That also makes working with developers smoother you’re speaking the same language, and you’re both aiming for a seamless user experience.
The perfect website balances purpose and functionality with beauty and simplicity. It’s easy to navigate, works on any device, loads quickly, and is accessible to all users.
At the end of the day, web design isn’t about you, it’s about the people using your product.
UXPin empowers teams to create seamless, interactive prototypes of websites and apps with realistic, fully functional components. Try UXPin for free.
The hamburger menu looks as tasty as it sounds. It’s a design-cum-navigation element, now on almost all apps, that comprises three horizontal lines. It looks like a hamburger. Picture something like this:
Bun, patty, bun.
If you squint, it kind of looks like the Spotify logo:
The UX designer’s hamburger menu saves time and space by storing relevant information in a universally recognized format. All that information is there in one place, and everyone knows where it is. Like how a diner learns what food a restaurant serves by reading the menu, a website visitor accesses different linked sections through one navigational element.
Well, that’s the theory, anyway.
This icon became pervasive in the mid-2010s, and similar to the classic hamburger itself, every UX designer has an opinion about it. For every designer who thinks it frees up screen real estate, another believes it’s a blot on the informational architectural landscape. You might fall somewhere in the middle, but you will change your mind after reading this.
Design apps and websites with a hamburger menu in UXPin. Build prototypes that are responsive and have functional navigation. Test your prototypes with users, hand them over to developers and build your design system without using additional design tools. Try UXPin for free.
Build advanced prototypes
Design better products with States, Variables, Auto Layout and more.
What Is a Hamburger Menu?
A hamburger menu is a UI element consisting of three horizontal lines, resembling a hamburger, typically located in the top corner of a website or app. When clicked or tapped, it reveals a hidden navigation menu or additional options.
The hamburger menu is commonly used in mobile interfaces to save space and keep the layout clean by tucking away less frequently used navigation items. While it’s efficient for mobile screens, some argue it hides important features, leading to lower discoverability.
Those three lines at the top of almost every app or mobile-optimized website? They make up the hamburger menu. Designer Norm Cox cooked up the idea in the early 80s because he thought it was easier to communicate information to people in a list format.
There’s evidence that backs up this theory:
Humans remember facts better when presented with a list.
Fifty-five percent of website users look at lists (seventy percent look at lists with bullet points).
Lists improve the selection-making process for users.
Even that short list above improves readability and breaks down content into digestible “chunks.”
But other research tells a different story.
It all has to do with discoverability. Some website visitors can’t find the links when they’re hidden in a hamburger menu, which affects click rates. And click rates are even lower when designers place the hamburger menu on the top-left of the screen because of how most people scan their devices (center first, then right).
“The implied message is that things at the top of the screen are to be glanced at, not clicked on,” says UX Planet.
Perhaps the most shocking statistic is this one: Forty-eight percent of internet users over 45 don’t know what the icon even means.
So, unless your creative brief is “create a design for only millennials because nobody else must visit our website,” maybe choose something different the next time you consider a hamburger.
It’s Just a Hamburger Menu. What’s the Problem?
The hamburger menu certainly saves space; some would argue it’s easier on the eye. Instead of links stacked up against each other in the sidebar — or, God forbid, sprawled across the top of the home page like trash bags on a downtown sidewalk — the menu keeps everything hidden from sight, facilitating crisp and creative design. It’s like neatly placing everything in a drawer.
But it’s that drawer comparison that irks some designers.
Despite what IKEA tells you, humans put stuff in drawers for one reason:
There’s nowhere else to put it.
That’s why, for some designers, hamburgers are off the menu.
Think about the things you keep in drawers. Now think about the things you keep on shelves. Would you keep a framed photo of Mom in your drawer? Or your Master’s in User Experience Design? Probably not, because you want everyone to see it.
The hamburger menu suggests one thing: The items contained within are of little importance — concealed from public view and brushed under the carpet like a 20-year-old dirty secret that nobody wants to talk about.
Anti-hamburger designers think the menu is little more than an afterthought: There’s nowhere to put it, so let’s put it here. It’s lazy, if not necessarily bad, design.
So what are the alternatives?
A Burger-Free Menu
The most popular alternative to the hamburger menu is probably tabs, especially for app navigation on smaller smartphone screens. Sure, you’re limited to four or five menu items, but the ones featured hold greater importance because you haven’t hidden them away.
“Tabs offer a more modern and useful method to navigate around an app, and the core sections of your application are immediately visible to the user,” says UX designer and software engineer Michael J. Fordham. “If you’re concerned about space, you can implement hide gestures that make the tabs disappear when you scroll down but reappear when you scroll up.”
What else is on the menu?
Floating Hamburger
Again, best served on apps, this alternative provides users with context when they click on the three-line icon. Like tabs, links no longer feel like an afterthought, and they feature more prominently on screens. If you’re building a mobile app without developers on hand, Adalo is the no-code app builder that lets you design and publish custom database-driven apps to the Apple App Store and Google Play Store with a visual canvas—giving you full control over navigation patterns and UI elements.
Swipes
Think Tinder, where users scroll left or right to navigate apps. Swipes only provide sequential access to pages, though, so won’t suit contexts where users jump to different sections quickly, like store pages.
Ultimately, It’s Your Choice as the Designer
If you’re still hungry for a hamburger, a couple of tips:
Supersize your burger: Make your menu more recognizable so visitors can see it. The links contained within could be critical for the website owner. Make sure people click on them.
Create a secondary menu: Couple the hamburger with secondary access to important pages. (Use one of the menu alternatives above.) You’re probably thinking about the c-word (“clutter”), but you can avoid this by incorporating minimalist elements elsewhere in the design infrastructure. Try it.
Last Bite
Mentioning the hamburger menu in UX design is like bringing up politics at a dinner party. Expect some controversial opinions. Despite what some designers think, it’s not a crime to use the hamburger, and it can be an incredibly effective navigational tool. Just realize its potential downfalls, consider the overall context and try out a couple of alternatives with UXPin before your next bite. When’s the next time you’ll serve up a hamburger?
Join the world’s best designers who use UXPin — not your average UI design and prototyping tool. Start your free trial.
You may wonder what the difference between UXPin and Merge is. And, which one is right for my design team?
To put it simply, UXPin is an all-in-one design software that covers the entire product design process together, including design handoff, while Merge is a technology that allow you to bring interactive components to UXPin and design prototypes using them.
Ultimately, Merge technology leads to a more collaborative and faster design process in which both designers and developers can share a single source of truth and create consistent UIs. Check more about UXPin Merge here.
Reach a new level of prototyping
Design with interactive components coming from your team’s design system.
Image-Based vs. Code-Based Design Tools
Before we get into UXPin and Merge, it’s important to understand the difference between image-based and code-based design tools.
When designers hear code-based design tool, they assume it’s a developer tool or must learn code to use it–both are incorrect.
For the most part, designers won’t notice much difference when comparing the two interfaces, except that code-based tools generally have more options for interactivity.
For example, if you create an input field using an image-based tool, it’s just a block on the canvas. In UXPin, an input behaves like it would in the final product. When users click the input, a cursor appears, and they can enter text. With UXPin’s various features, designers can then:
UXPin is an end-to-end code-based design tool for advanced prototyping and testing. Designers can build prototypes that accurately replicate final product interactions and functionality.
UXPin looks and feels like any other design tool but with features that enhance UX workflows, collaboration, prototyping, and testing.
Some of those key features include:
Variables
Interactions and Conditional Interactions
Expressions
Auto Layout
Design Systems
Comments
Variables
Variables allow designers to capture data from input fields and use it elsewhere in the prototype. This example from our demo sign-up form demonstrates how you can capture a user’s email address to personalize the confirmation page.
UXPin makes it easy to add Interactions to your prototypes with a few clicks. Designers have an extensive list of Triggers, Actions, and Animations that accurately mimic final product interactivity.
Conditional Interactions take interactivity to another level with if-then and if-else conditions–similar to what Javascript does for devs.
Returning to our demo sign-up form, we see how you can use Conditional Interactions to present users with error messages if they leave the email and password fields blank. Only when the user meets the input’s conditions can they proceed to the confirmation page.
Expressions
Expressions take prototyping to the next level, allowing designers to create dynamic user experiences comparable to code. In our sign-up form prototype, we use Expressions to define the email and input field criteria:
Email: must have the @ symbol and domain extension (.com, .co.uk, etc.)
Password: must be longer than 8 characters
Designers can add as many Expressions to components and prototypes as they like, achieving results indistinguishable from code.
Auto Layout
Many design tools offer auto layout, but UXPin’s Auto Layout uses Flexbox naming and properties to create realistic expectations and improve designer/developer collaboration.
UXPin automatically categorizes Design Systems into:
Colors
Typography
Assets
UI Patterns
The entire library appears in the left-hand sidebar, so designers simply drag and drop elements to build user interfaces.
UXPin also provides five Built-in Design Libraries, including OS, Material Design, Bootstrap, Foundation, and User Flows, so teams can build prototypes or MVPs fast to test ideas and hypotheses at every stage of the design process.
Comments
Comments allow design teams and stakeholders to collaborate, share feedback, assign tasks, and provide context within design projects and on prototype previews.
UXPin allows anyone to use the Comments on Preview feature, eliminating the need to purchase additional users like stakeholders and developers who don’t need access to UXPin’s canvas. Designers can password-protect designs, so only those authorized can view them.
Ready to see what code-based design is all about?Sign up for a free trial to build your first interactive prototype with UXPin today!
What is UXPin Merge?
UXPin Merge is a technology that syncs code components from a repository to UXPin’s design editor. Organizations can use Merge with open-source libraries or import their product’s design system.
Designers use these code components like building blocks, dragging and dropping to build user interfaces.
Merge components include properties defined by the design system, including interactions, states, colors, typography, sizing, etc. These properties appear in UXPin’s Properties Panel, where designers can make adjustments according to prototyping requirements.
You can change the color, size, variant, and add an icon using properties.
Merge pulls these properties from the repository and automatically syncs any changes. For example, if the design system team changes the primary color from blue to red, Merge will detect the update and notify design teams of the new release.
Version Control allows designers to choose when they want to switch to the latest release and can revert to early versions whenever they want.
Is There a Way to Test UXPin Merge?
Yes, you can test UXPin Merge on trial or you can enjoy its features on Merge AI plan that’s perfect when you want to use leverage popular open-source component libraries such as MUI, Ant Design, and Bootstrap without needing to start from scratch.
When you sign up for UXPin Merge, you gain access to three trial kits—MUI, Ant, and Bootstrap—giving you a starting point to experiment and create interactive prototypes using real React code.
Each trial kit comes fully loaded with reference patterns and example components, such as cards, snack bars, and skeleton loaders, which you can use directly in your projects. Additionally, you can browse full layouts, like dashboards, to jumpstart your designs without the need to build from the ground up.
Here’s how UXPin Merge works:
Select a Library: Choose from built-in component libraries like MUI or even custom Tailwind UI components. Simply drag and drop these ready-made components into your design canvas.
Edit Variants and Properties: Customize the components with real React code by toggling between different variants and modifying their properties. You’re not just working with static design assets but actual coded components that behave as they would in production.
Use Custom Code: If you’re working with custom Tailwind UI components, you can paste code directly into UXPin to generate entire UI sections instantly. This feature allows you to skip designing components from scratch and speeds up your workflow by using existing code.
AI-Powered Component Generation: UXPin Merge even integrates AI to help you create code-based components on the fly. For example, you can prompt the system to generate a “Persona Card,” and UXPin will create a fully functional Tailwind CSS-based component directly on the canvas.
Effortless Developer Handoff: Once your design is complete, UXPin Merge makes it easy to hand off your work to developers. Share your prototype through a preview link, and developers can access the real JSX code, dependencies, and functions for each component. This ensures that developers receive production-ready code that they can immediately use in their environments.
With UXPin Merge, there’s no need to waste time recreating components for the design team or manually coding every element from scratch. Merge AI allows designers and developers to work more efficiently by tapping into the power of real React components, ensuring consistency between design and development from the very beginning.
These three integrations each serve different prototyping and team needs. The Git and Storybook integrations require technical knowledge to set up the components and repository for Merge. UXPin provides a boilerplate for engineers, and our technical team is on hand to guide the setup process.
Storybook is probably the best option for private design systems because engineers can build components in isolation, prototype, and test them before pushing them to UXPin for design teams.
Merge’s primary benefit is that it creates a single source of truth between design and development. Designers and engineers use the same component library from the same repository–creating a seamless design handoff process.
Engineers simply import the component library.
Copy JSX changes UXPin produces from component properties.
And develop the final product according to the design team’s prototype.
This streamlined workflow creates many product development efficiencies, including:
Seamless handoffs with less communication and documentation
Flawless cohesion and consistency
Higher quality feedback from stakeholders
Meaningful, actionable results during testing
High-quality outcomes = better user experience
UXPin to Merge – The Scalable Design Solution
UXPin offers companies a scalable design solution with the tools and features to support your workflow at every stage of maturity.
UXPin Standard is an excellent solution for startups and companies who aren’t using a design system. Designers can build fully-functioning interactive prototypes and MVPs for accurate testing.
UXPin Standard also includes UXPin’s Design Systems feature, so designers can save and share product components, color palettes, typography, and assets.
Scaling With Merge
Whether you’re a fast-growing startup or multinational enterprise, Merge enables companies to scale design operations.
FinTech giant PayPal and leading software developer Iress have both experienced enhanced workflow optimization and collaboration from switching to UXPin Merge.
At the enterprise level, Merge enables teams to move faster because they have a single source of truth across the entire product development team. There’s less friction and better collaboration because designers and engineers speak the same language while working within the same constraints.
What Merge designers use in UXPin to create a button or any other UI component is exactly the same button or what have you as which engineers pull from the repository to develop the final product.
We’ve also seen how Merge helps companies at the startup stages. Startup TeamPassword doesn’t have a UX team, so engineers use UXPin Merge for prototyping and testing. Because Merge creates a drag-and-drop environment, the learning curve is significantly reduced compared to traditional design tools.
TeamPassword’s engineers use components they’ve programmed to build prototypes in UXPin, so they can test, make changes, and iterate fast!
Take your prototyping and testing to the next level with the power of Merge. Visit our Merge page for more details and how to request access.
Image-rich content drives website engagement, and making sure those images display properly is a crucial part of good UX design. Whether you’re working with photographs, illustrations, or video, an image that’s stretched, squashed, or poorly cropped makes a poor impression for on-site visitors and affects their overall experience on the site.
Determining aspect ratios for optimal viewing on all kinds of devices can be both a chore and a challenge for designers, but today’s responsive design tools and an array of free aspect ratio calculators can make sure that images and video files are displayed in the best light everywhere.
Designing a website or app full of images? Create prototypes of it with UXPin! It’s an end-to-end solution that will cover your full design process and it doesn’t require any plugins for design handoff. See how easy it is. Sign up for a free trial.
Build advanced prototypes
Design better products with States, Variables, Auto Layout and more.
What is Aspect Ratio?
In the most basic way, aspect ratio is the relationship between an image’s width and height. Because aspect ratio reflects an image’s proportions, not its size, the aspect ratio remains the same regardless of size. For example, a square image has an aspect ratio of 1:1, since its height and width are the same. That ratio will hold no matter how large the image is. An image that’s 320x320px will have the same aspect ratio as one that’s 1080x1080px – 1:1.
For images that are not square- that is, horizontal or vertical rectangles of various sizes… Aspect ratio can vary. Common aspect ratios used in photography, video, and other image-based design work include 4:3, 3:2 or 16:9, the basic ratio for many widescreen devices such as televisions and desktop computers.
Although the aspect ratio of an image comes from the relationship of its height and width, multiple subsets of this ratio also help to define image proportions.
Pixel aspect ratio
Pixel aspect ratio (PAR) refers to the proportion of the individual pixels that make up an image. Pixels are typically square, which results in a pixel aspect ratio of 1:1. But images that are optimized for certain types of displays can also have rectangular pixels with an aspect ratio of 4:3 or similar.
Display aspect ratio
Display aspect ratio (DAR) is the most relevant kind of aspect ratio for designers, and it’s the one that’s most commonly associated with the general term. As the name suggests, display aspect ratio refers to the proportions of an image as it appears on screens of various kinds.
Some devices, such as cameras and televisions, have a fixed DAR, so for images to display well on these devices, they need to be optimized for their particular aspect ratio. For example, a typical display aspect ratio for widescreen video to be displayed on a monitor or television screen is 16:9. When images with a different aspect ratio are displayed on these devices, they appear distorted. Digital SLR camera sensors also have a fixed display aspect ratio, which controls how images captured by the camera will be saved and displayed.
Storage aspect ratio
Storage aspect ratio (SAR) is an aspect ratio formula that pertains specifically to encoded digital video files. SAR refers to the width and height relationship in video frame size, and it needs to be consistent across all individual frames in order for the complete video to display properly. In a commonly used formula, SAR x PAR = DAR for most widescreen videos.
Aspect Ratios Affect UI/UX Design
Aspect ratios play an important part in any kind of project that involves capturing and displaying photographs, videos, or other kinds of image-based files in the correct way. For photographers, the camera’s fixed aspect ratio can have a considerable impact on composing a photograph as well as displaying it later on other devices. And for videographers and anyone working with slideshows, animations, and other motion projects, aspect ratio is a key factor for correct display on widescreen and mobile devices.
The shift to responsive web design, which ensures that content displays properly across all devices, helps to resolve a number of problems with setting aspect ratios for individual images. But even in these environments, problems can arise, such as when an image can’t be adjusted for display without compromising either its content or its quality. A simple example is when a square image with a 1:1 aspect ratio needs to fit into a rectangular box on a website page. To accommodate varying image size requirements, proportions, as well as size, may have to be adjusted.
In an increasingly image-driven digital world, videos and images that look even slightly out of proportion contribute to a visitor’s negative impression of a website – and those that are clearly forced into the wrong configurations can even interfere with a site’s usability.
Poorly proportioned product images or a user guide video that’s too stretched to see clearly can affect both a visitor’s willingness and their ability to use the site. Designers, developers and anyone working with images will need to know how aspect ratios work and how to manipulate them for the best visual effect. To streamline the process, a number of aspect ratio calculators, both free and paid, have popped up on the web.
Aspect Ratio Best Practices for Responsive Design
In responsive design, maintaining the correct aspect ratio for images, videos, and UI elements is critical to ensure that your content looks clean and professional across different screen sizes. A well-maintained aspect ratio not only preserves the integrity of your visuals but also enhances the user experience by preventing distortion and awkward cropping on various devices. Here are the best practices to follow when dealing with aspect ratios in responsive design:
1. Use CSS for Maintaining Aspect Ratio
CSS provides tools that make it easy to ensure consistent aspect ratios across different viewports. For instance, the aspect-ratio property (introduced in CSS Level 4) allows you to define the aspect ratio for containers, images, or videos, helping you maintain the correct proportions regardless of screen size. Before this property was widely supported, developers often used the padding-top trick (where padding percentage is based on the width) to preserve the ratio of containers or media elements.
2. Maintain Aspect Ratio for Key Media Elements
Images, videos, and interactive elements are key to a user’s experience, so it’s essential that they are not distorted or cropped when viewed on different devices. Stretching or squishing images can lead to unprofessional-looking designs and frustrate users, especially if the distortion impacts how users interact with visual content.
By preserving the correct aspect ratio, your images and videos will maintain their intended dimensions and scale properly with the screen size. To achieve this, make sure that media queries in your CSS accommodate different viewports while keeping the aspect ratio intact.
3. Use Responsive Images for Performance Optimization
Performance plays a significant role in responsive design, especially on mobile devices where slower connections are common. Using responsive images is key to balancing performance with visual quality. You can use the srcset attribute in your HTML, which provides different image resolutions based on the user’s screen size.
4. Test Across Devices
One of the core principles of responsive design is thorough testing across different devices. What looks great on a desktop might be misaligned on a mobile phone if the aspect ratio isn’t preserved. Use tools like Chrome Developer Tools or online responsive design testers to emulate different devices and screen sizes.
For images and videos with fixed aspect ratios (like 16:9 or 4:3), ensure that the design adapts well across all screen sizes without distortion. Ensure that all dynamic resizing respects the original proportions.
5. Handle Aspect Ratios in Fluid Layouts
Responsive design often involves fluid layouts, where elements resize dynamically based on the screen width. In these cases, setting the aspect ratio is essential to prevent issues like images and containers becoming too narrow or tall. By using percentage-based widths and heights, you can ensure that your content scales properly without disrupting its aspect ratio.
For example, a 16:9 video container might be scaled down to fit a mobile screen, but it should always retain the 16:9 ratio, no matter how much the overall layout changes. Fluid layouts combined with flexible aspect ratios ensure that your design remains consistent and visually appealing on all devices.
Aspect Ratio Calculators
It’s certainly possible to calculate an image’s aspect ratio and resize it manually with the help of some simple mathematics. But that becomes tedious when dealing with many images from multiple sources. With the help of one of the many online aspect ratio calculators, though, you can determine the optimal aspect ratio for any image in a number of different formats, allowing designers to fully optimize each image for optimal viewing.
To use a basic aspect ratio calculator, you’ll need to know the image resolution in pixels and select the type of environment where the image will appear, such as HDTV. The calculator then returns the result as an optimal aspect ratio. This can be especially helpful for video editing, where the video might include slides or images of varying sizes from different sources.
Tools for Aspect Ratios in UX/UI
Other image management tools can also help with getting the aspect ratio right. Image editors such as Photoshop and Canva provide templates designed with optimal aspect ratios in mind, suitable for use in typical situations such as designing website banners, headlines, or social media profiles. Most standard video editing software also allows users to determine and adjust aspect ratios of images to be included as individual frames in the video.
Correctly proportioned images that display well and perform properly are a powerful tool for businesses of all kinds. Getting aspect ratios right makes images look good wherever they’re displayed. Whether you’re selling a product, offering a service, creating an online course or something else, photographs, illustrations or video can attract visitors and keep them engaged.
UXPin’s features make it easy to make sure images are sized and proportioned correctly. With Image Fill, you can choose from a variety of settings that allow you to adjust image size or crop the image while preserving its aspect ratio for perfect positioning. If you’re working with video content or building apps that display media, Adalo is the no-code app builder that allows you to design database-driven apps with properly proportioned images and videos without requiring developers.
Design systems provide you with a complete set of standards to enhance and manage your design efforts – from beginning to end. But in order to build and maintain a functional design system, first, you’ll have to commit time and effort before enjoying the benefits of a well-oiled design machine.
Looking for a design system management tool? UXPin Merge is a technology for bringing design library’s components to UXPin and using them in prototyping. Read more about UXPin Merge.
Reach a new level of prototyping
Design with interactive components coming from your team’s design system.
What is design system documentation?
Design system documentation is a comprehensive guide on using a design system. It contains UI elements, components, and design language together with an explanation of how to use them. It helps share, consume, and execute these rules. This ultimately helps designers and developers to model their efforts around delivering a more predictable UI.
Design system documentation plays a crucial role in facilitating the adoption and implementation of a design system. It helps ensure consistency, efficiency, and predictability in UI design and development efforts, ultimately leading to a better user experience across products and platforms.
Two types of structuring design system documentation
A typical design system comprises a component library encompassing UI design elements and other components along with workflows. Design systems thus work to unify pattern libraries and style guides into a single cohesive experience.
Task-specific design system documentation
According to Heidi Adkisson, Principal UX Designer & Partner at Blink UX, while there are many different design documentation variants, some of the more task-specific types include:
User Stories – allow designers to base their approach on the user needs perspective.
Screen Flow Diagrams – are great for showing how a user might navigate between screens.
Use Cases – offer longer, more objective narratives which hold enormous benefits down the line.
Page-Level Documentation – describes an overview of a page’s function, purpose, and instructions for demos.
Scenario Narratives – outline descriptive narratives around how to perform specific tasks.
Structural design system documentation
Other design documentation types related to docs from a structural perspective and often include:
Object Model– which provides a structural view of a system.
Architecture Map – communicates how the app or site is structured in general.
Standardized Components – talk about standardized elements which are shared across the system.
System Vocabulary – lists the specific words, phrases, and other relevant system-specific language.
Navigational Framework – describes menu items, navigation elements, and control mechanisms.
Why do you need to document your design system?
Design documentation is today an essential component of any design system. From providing context to describing team coordination efforts and maintaining a clear record of the system’s component library, component documentation is fundamental to successful design.
Design system documentation was once considered “non-critical” and was often overlooked. Without ever being exposed to the potential of design system documentation, stakeholders had no idea of the value that documentation could bring.
Following the emergence of Google’s Material Design, it quickly became clear that design documentation was critical. Most design documentation consisted of disorganized notes and bullet points, leaving most of the vital information out of the system. Material Design changed all that, adding the necessary structure and warranting the need to document.
Documenting a design system comes with a raft of benefits as well:
It provides a vision for the team to buy into – By creating design documentation that focuses on people, instead of black and white technical directives, you’re able to establish a clear vision that teams can refer back to when they lose focus.
It gives the design system a clear, material structure – By keeping ahold of processes, designers and developers can better rely on a plan which has been laid out in front of them, instead of existing as an idea or general objective.
It helps you to save resources – A good, high-quality document design infrastructure will save on costly trial-and-error mistakes, allow teams to optimize their time and effort, and ensure that reusable design patterns get recorded and later replicated.
It drives engagement and satisfaction – Big projects can take a hefty toll on teams. Effective design documentation gives them something real to work towards – something they can count on when the going gets tough.
It improves efficiency and productivity – With everything the team needs documented and made available, things get done faster, while keeping everyone on the same page.
Without effective design documentation, successfully designing and delivering a product to market is near-impossible. Design system documentation has become essential by providing the rationale behind specific design decisions and helping users understand and interact with the model.
9 steps to creating design system documentation
Step 1: Understand who is going to use the documentation
The very first step in design system documentation is to kick things off by looking at the market you’re doing all this work for – your users. Without understanding what they want, you’ll likely get your design goals and results very wrong.
Think about categorizing your documentation as a product and your team as the consumers of that product. Focus on who will be using this documentation, what you’ll need to include to give them the context they’re looking for and how to structure it in a way that it’ll be easy to consume.
Step 2: Outline the documentation needs of each component
Next, you’ll need to establish an outline covering the needs of each component and should include design guidelines on:
Patterns
Code snippets
Colours
Images
Fonts
ADA compliance guidelines and more.
Component documentation should consider the needs of your organization first and foremost before considering the outline in the context of other design elements.
Step 3: Create a style guide
Style guides help to establish the basis for the visual presentations of the documentation and offer a guideline for the visual and content elements of a design system. Style guides begin by looking at the other design documentation elements and describe the colors, logo prominence, and overall language tone. Ultimately, they serve as the template for others to use.
Step 4: Create a reusable template that you can share with your team
Then, you’ll need to draft a template your team can reuse over and over while sharing it with one another. Having a recyclable documentation template saves your team time, keeps things consistent and ensures that everyone understands what they’re looking at.
When sharing your documentation files, make sure they’re accessible to all team members while maintaining security standards. If your file is password-protected, you can remove PDF password restrictions to make sharing easier without compromising the integrity of your design system.
Step 5: Develop a single source of truth
Establishing, articulating, and documenting a single source of truth is probably one of the most important product design components. This universally approved agreement centers on everything your design team will be working on. From icons and color schemes to type scales and buttons – if everyone knows and understands what things need to look like, things will flow far more smoothly.
Start either with basic design components, found in your component library – created with tools like UXPin – or commence with the development phase, with React components defining the origins. UXPin, for example, allows you to ensure consistency throughout the company with UXPin Merge’s design system versioning.
Keep creating a single source of truth for your team to design from when working on projects. UXPin Merge offers a design system versioning, allowing you to optimize your single source of truth design approach and to manage code-driven prototyping with it. With tools like UXPin, you can make use of baked-in open-source libraries or import your own design system via Git, Storybook or NPM integration.
Step 6: Include a starter’s kit
Design kits are a sometimes-overlooked component of good design system documentation. However, these necessary resources represent the “starting point” elements that are so essential for good user experience. Starter kits are the perfect onboarding tools and are flexible enough to range from step-by-step guidelines to advanced user manuals.
Step 7: Collect feedback
Feedback lets you know when a design system is working well, and when it isn’t. Some organizations, for example, limit their feedback collection mechanisms to GitHub issues, creating challenges for designers and less-technical role players in giving their thoughts.
Alternative feedback collection methods like website feedback boxes on documentation sites allow users to describe and submit the issue. A streamlined feedback channel without the need to open a GitHub issue allows anyone looking to provide any feedback the ability to do so quickly and via the documentation platform.
Step 8: Distribute the responsibility
Documenting can be a labor-intensive task for which people aren’t always willing to volunteer. But sharing its importance with the team helps them to understand the value of taking care of it. Instead of burdening one person with this challenge, consider sharing the responsibility of doing so across the team. This way, you’ll get a variety of insights as well as make the task easier to accomplish.
Step 9: Update it regularly
Design systems need to be maintained, kept clean, and relevant. Continually keep an eye on identifying potential problem areas, reducing discrepancies, and streamlining the number of active systems.
A good example here would be to establish a single source of truth for your React story code examples for your documentation site and design system components, updated regularly to ensure they align with each other.
UXPin also boasts a regular update feature. Whenever making changes to a master component from a design system, UXPin allows you to update it in the system immediately, ensuring everything stays completely aligned.
Design System Documentation Template
Here is a template that you can use when writing your own design system documentation. Use it as a reference.
1. Introduction
Overview: Provide a brief introduction to your design system. Explain its purpose, key goals, and the value it brings to your organization.
Principles: List the core principles or guidelines that underpin your design system. These might include consistency, accessibility, responsiveness, and scalability.
2. Getting Started
Quick Start Guide: Include a step-by-step guide on how to get started with the design system. This should cover how to access the system, what tools or resources are needed, and any initial setup required.
Installation: Provide detailed instructions for installing any necessary software or dependencies, including commands for installing packages or setting up development environments.
Contributing: Outline the process for contributing to the design system. This might include a guide on submitting changes, creating new components, or reporting issues.
3. Design Tokens
What are Design Tokens?: Briefly explain what design tokens are and why they are important. Design tokens are the visual design atoms of the design system — specifically, they are named entities that store visual design attributes.
Token Categories: List and describe the different categories of design tokens used in your design system. Common categories might include color, typography, spacing, and shadows.
Usage Guidelines: Provide guidelines on how to use design tokens in both design and code. Include examples for clarity.
4. UI Kit
Color: Document your color palette, including primary, secondary, and tertiary colors. Include color codes and usage examples for background, text, and UI elements.
Typography: Define your typography styles, including font families, sizes, weights, and line heights. Provide examples of how to apply these styles in various contexts.
Spacing: Detail your spacing system, including values for margins, padding, and grid spacing. Provide examples of consistent spacing usage.
Icons and Imagery: Describe the guidelines for using icons and imagery within the design system. Include icon libraries, image dimensions, and file formats.
5. UI Components
Component Library: List all available UI components, such as buttons, forms, modals, and navigation elements. Provide a brief description of each component.
Component Usage: For each component, include the following details:
Description: A brief explanation of the component and its purpose.
Anatomy: A breakdown of the component’s structure, including any variants or states.
Usage Guidelines: Best practices for when and how to use the component effectively.
Code Examples: Include code snippets in HTML, CSS, and JavaScript (or React, Angular, etc.) to demonstrate how to implement the component.
Accessibility Considerations: Guidelines for ensuring the component is accessible to all users, including keyboard navigation, screen reader support, and contrast ratios.
6. Patterns
Design Patterns: Document common design patterns used across your product or website. Examples might include forms, navigation, authentication flows, or error handling.
Pattern Usage: For each pattern, provide a description, usage guidelines, and code examples. Explain how patterns can be combined with components to create a cohesive user experience.
7. Brand Guidelines
Voice and Tone: Outline the brand’s voice and tone, including guidelines for writing style, terminology, and messaging.
Logo Usage: Provide rules for logo usage, including minimum sizes, clear space requirements, and acceptable variations.
Brand Assets: Include links to downloadable brand assets, such as logos, fonts, and color palettes.
8. Accessibility
Accessibility Standards: Detail the accessibility standards your design system adheres to, such as WCAG (Web Content Accessibility Guidelines).
Best Practices: Provide guidelines for creating accessible designs and components, including considerations for screen readers, keyboard navigation, and color contrast.
Testing Tools: Recommend tools and techniques for testing accessibility in both design and development.
9. Changelog
Versioning: Explain your versioning system and how changes to the design system are documented.
Recent Updates: Include a log of recent changes, updates, and additions to the design system. Provide links to specific updates or new components for easy reference.
10. Resources
Tools and Plugins: List any tools or plugins that support your design system, such as Figma libraries, Sketch files, or browser extensions.
Training and Tutorials: Provide links to training materials, tutorials, or webinars that help users understand and use the design system effectively.
Support and Community: Include information on how to get support, report issues, or connect with other users of the design system.
Build Prototypes with your Design System
A sound design system needs to be supported by clear, unambiguous component documentation that enriches your component library and revolves around a single source of truth.
As a general good practice rule – documentation is everything. It keeps track of progress, milestones, wins, and losses, lets you go back, review and learn, and – most importantly – allows people to understand and follow the design system itself.
Do you need to ensure that your design system is being implemented? UXPin with Merge technology allows you to use UI components from your design system in prototyping. Simply import them to UXPin, drag and drop them in design editor and create consistent prototypes that look like a finished product. Read more about UXPin Merge.
Now that UXPin has a Storybook integration that breaks down design-dev inconsistencies and makes it easier than ever to manage your UI components library, you might want to take some time to look at Storybook examples.
Plenty of world-renowned websites use Storybook. Look at some of the best Storybook examples that you can use as inspiration for developing your digital products.
Take UI components directly from Storybook and import them to UXPin. Design interactive and visually stunning layouts without extensive design skills. Discover UXPin Merge.
Design UI with code-backed components.
Use the same components in design as in development. Keep UI consistency at scale.
What is Storybook?
Storybook is an open-source tool for developing UI components in isolation for React, Vue, Angular, and other frameworks. It allows developers to build, test, and document components in a standalone environment outside of the main application, promoting better modularity and reusability.
It enhances the efficiency of UI development by providing a focused environment for creating, testing, and documenting UI components, making it easier for developers to build consistent and robust user interfaces.
BBC iPlayer Web
BBC iPlayer Web switched to Storybook when it needed more custom components. Preview their Storybook here: BBC iPlayer Storybook.
A growing number of movie and television show producers now have streaming platforms that let people watch specific content when they like. BBC iPlayer Web makes it incredibly easy for viewers to find specific types of content by title, category, or topic.
When the streaming service started, it built its back end with Node.js. It didn’t take long, though, before the development team decided to make the migration to React. React components were an obvious improvement as the platform grew.
Around 2019, though, the team realized that its approach didn’t work as well as expected. The UX professionals and developers didn’t have a common language that helped them work toward goals. They also found it difficult to locate the components they needed to add content and update the website’s appearance.
Ultimately, the BBC iPlayer Web team realized that they were spending way too much time maintaining their component library.
Storybook became a significant tool that helped them address these problems.
BBC iPlayer Web has a public design system, so you can look at it to learn a few tricks and find inspiration when you feel stuck on a project.
Spend some time browsing BBC iPlayer’s Storybook example. Then, visit the website. You will immediately see how the designers and developers combined components to create a tool that works exceptionally well for viewers.
The Guardian publishes a tremendous number of articles daily. It’s often one of the first news outlets to report on breaking news. It also has frequent articles about sports, culture, and lifestyle topics. Considering that The Guardian covers events all over the world, it needs a fast, reliable way to turn written text into published web pages.
The Guardian Storybook components library (access the Guardian Storybook here) streamlines the design and publication process. Building the design system, however, must have taken quite a bit of time because it includes every component that the well-designed website could possibly need. It even features slightly different versions of designs. For example, the CaptionBlockComponent Story includes:
with defaults
PhotoEssay using html
when padded
with width limited
with credit
when overlayed
No matter what type of caption block the designers want to include, they just have to search the component library, choose the correct option, and add text for the specific story.
The design team even created multiple donut graphs to fit unique circumstances.
Of course, The Guardianalso maintains designs that help readers identify what type of content they’re reading.
A Review headline doesn’t look the same as a Photo Essay headline.
Again, it took a lot of effort to build this Storybook design system. Now that The Guardian editors and publishers have it, though, they can quickly publish coherent content that keeps readers informed without misdirecting them.
Carbon, the design system used by IBM, primarily gets used to build digital products with specific functions, such as adding files to a project, submitting reports, and tracking an activity’s progress. IBM uses Carbon for internal and external products, so you might recognize some of the components in the Storybook UI design system.
This Storybook example contains countless components. You’ll find everything from tabs to pagination. The company just wants to make sure that it has functional tools that share an aesthetic.
The components in Carbon’s design system also tend to have extensive Stories that let coders make subtle changes when necessary.
Even the Basic Checkbox component has 184 lines of JavaScript code in its Story.
The designer or developer can see all of these interactions result from within the same environment. They don’t need to export it to a prototyping app or add it to a designing app. The interactions happen right there to save time and meet expectations.
Salesforce Lightning Design System for React
You can also find a Storybook with components of one of the best design systems – Salesforce Lightning. This design system is based in React, a JavaScript library, which is commonly used for building user interfaces. React is a popular front-end library developed by Facebook that allows developers to create interactive and dynamic UI components.
When we talk about React in the context of design systems, it usually means using React to implement the components and design guidelines provided by the design system.
By leveraging the Salesforce Design System, developers and designers can create applications that not only look great but also provide a consistent and intuitive user experience, ultimately leading to increased user satisfaction and productivity. Additionally, adherence to the design system ensures compatibility and seamless integration with other Salesforce products and services.
Salesforce Lightning Design System was created to be framework agnostic, yet it is still compatible with other front-end frameworks, and developers have the flexibility to choose the technology stack that best suits their needs and preferences.
This Storybook example is based on React and it has UI components such as a data table, checkbox, button, card, carousel, and more.
Audi UI React
Another React-based Storybook is a design system by Audi. Crafted with precision, the Audi Design System serves as the ultimate beacon of truth for our global teams dedicated to crafting Audi’s finest offerings.
From insightful Getting Started guides to indispensable Core Components, this Storybook example empowers every team member, ensuring a unified approach across all Audi products worldwide. The Audi Design System embodies the essence of precision, innovation, and seamless collaboration that the design team at Audi chose as its defining qualities.
It sets the standard for design systems in the automotive industry and beyond. Check out its Storybook to see for yourself. It has navigational, input, text, and many other useful components.
FAQ
1. What is Storybook used for?
Storybook is an open-source tool used for developing, testing, and documenting UI components in isolation. It provides a sandbox environment where developers can create and showcase components independently from the main application. This helps in building components that are reusable, consistent, and well-documented.
Storybook is particularly useful in the development of design systems and component libraries, as it allows developers to visualize and interact with components outside the context of the application, ensuring they function correctly and look as expected. It also supports a range of add-ons for accessibility, responsive design, and performance testing, making it a versatile tool for front-end development.
2. What are some advanced Storybook examples?
Advanced Storybook examples demonstrate the tool’s capability to handle more complex scenarios and enhance the development experience. Here are a few examples:
Component Interactions: Using Storybook’s Controls add-on, you can create interactive components that respond to user input directly in the Storybook UI. This is useful for testing props and states dynamically.
Composite Components: Showcase components that are composed of multiple child components, such as a form with inputs, buttons, and validation messages. This helps in understanding how components work together in a real-world context.
Data Fetching and Mocking: Demonstrate how components behave with data fetching by using tools like MSW (Mock Service Worker) to mock API requests within Storybook. This is particularly useful for testing components that depend on external data sources.
Theming and Styling: Create stories that demonstrate how components adapt to different themes or styles. This is especially useful for design systems that support dark and light modes or multiple branding themes.
Accessibility Testing: Use the a11y add-on to automatically check for accessibility issues in your components and display the results directly in Storybook. This ensures your components are usable for all users, including those with disabilities.
3. What are public Storybooks?
Public Storybooks are Storybook instances that are accessible to the public over the internet. They are typically hosted on platforms like GitHub Pages, Netlify, or Vercel, allowing anyone to view and interact with the documented UI components. Public Storybooks are often used by companies and open-source projects to showcase their component libraries or design systems, providing developers and designers with a comprehensive reference for how each component should look and behave.
By sharing a public Storybook, teams can improve collaboration, provide clear documentation, and promote consistency across different projects. Public Storybooks are also valuable for onboarding new team members and for providing external contributors or users with insights into the UI components available within a project.
4. What is the difference between Storybook for React and Storybook for Angular?
Storybook is a versatile tool that supports multiple frameworks, including React and Angular, but the way it integrates and functions with each framework can differ slightly due to the inherent differences between React and Angular themselves.
Nevertheless, the core purpose of Storybook remains the same across both frameworks: to provide a powerful environment for developing, testing, and documenting UI components in isolation. Both Storybook for React and Storybook for Angular offer robust features that cater to the unique needs of their respective frameworks, ensuring that developers can maintain a consistent and efficient workflow.
5. How can I use Storybook with UXPin Merge?
Using Storybook with UXPin Merge allows you to import your React components directly from Storybook into UXPin, enabling a seamless integration between design and development. This integration ensures that designers are working with the exact same components that developers are using in production, leading to more accurate and efficient design processes. Here’s how you can use Storybook with UXPin Merge:
Set Up Storybook: Ensure that your React components are documented and organized in Storybook. You should have a well-structured Storybook instance with all the components you want to use in UXPin.
Sync Components: Integrate Storybook with UXPin and use UI components in your UXPin design projects, allowing designers to drag and drop components into their prototypes while maintaining full functionality and interactivity.
Design and Iterate: With the components imported from Storybook, designers can create high-fidelity prototypes in UXPin that are consistent with the development environment. This integration helps streamline the design-to-development workflow, reducing the risk of inconsistencies and ensuring that both teams are aligned.
Using Storybook with UXPin Merge is a powerful way to bridge the gap between design and development, ensuring that your UI components are consistent, reusable, and accurately represented across all stages of product development.
Try UXPin Merge and Storybook integration for fast prototyping
Use Storybook components to build interactive prototypes 8.6x faster than with vector-based tools like Figma. Import them to UXPin via our integration with Storybook and build products quickly. UXPin Merge’s Storybook integration lets you import your components within one minute. It doesn’t even require any technical knowledge, especially when you maintain a public Storybook design system. Discover UXPin Merge.
React, the popular JavaScript library for building user interfaces, has revolutionized web development. Most of you are no stranger to its power and flexibility. But, how can you elevate your React game and ensure your projects are easy to maintain and scale? That’s where this article with React best practices comes into play.
In this guide, we’ll delve into ten essential React best practices to help you create efficient, maintainable, and error-free code. From mastering React components to employing the latest techniques, we’ll equip you with the knowledge you need to excel in building new features for your React projects.
Are you about to design a React app? You don’t need a designer to make it happen! Drag and drop React components from top open-source libraries like MUI, Fluent UI to build responsive layouts in minutes. Discover UXPin Merge.
Design UI with code-backed components.
Use the same components in design as in development. Keep UI consistency at scale.
10 React Best Practices
Master Component Nesting and the Parent-Child Relationships
The first React best practice that we recommend implementing is practicing nesting and parent-child relationship.
If you’ve been building React applications for a while, you’re no stranger to component nesting. But have you ever explored just how deep this rabbit hole goes? Understanding the intricate parent-child relationships within React components is essential.
Parent components, also known as container components, are at the top of the component hierarchy in React. They act as the guardians of state and serve as the glue that binds together smaller components called child components. While child components handle specific functionalities or UI elements, parent components manage the overall structure and data flow of your application.
Example of Parent and Child Components in React
To better understand parent-child relationships, let’s look at a simple example involving a parent component called ParentComponent and a child component called ChildComponent.
ParentComponent.jsx
import React, { useState } from 'react';
import ChildComponent from './ChildComponent';
const ParentComponent = () => {
const [message, setMessage] = useState('Hello from Parent!');
const handleChildClick = () => {
setMessage('Child component clicked!');
};
return (
<div>
<h1>{message}</h1>
{/* Passing handleChildClick as a prop to ChildComponent */}
<ChildComponent onButtonClick={handleChildClick} />
</div>
);
};
export default ParentComponent;
This is the parent or container component. It holds the state (message) and a function (handleChildClick) that updates this state. The state is used to manage the data that might be passed down to the child components or used within the parent component itself.
This is the child component. It receives a function (onButtonClick) as a prop from the parent component. When the button in the ChildComponent is clicked, it calls this function, which in turn updates the state in the ParentComponent.
By diving deep into this structure, you gain the power to design applications that are not just functional but elegant in their architecture.
Optimize Re-Renders
In React, optimizing re-renders is crucial for enhancing performance. Two key components, PureComponent and React.memo, aid in this optimization process by preventing unnecessary re-renders.
Both PureComponent and React.memo are powerful tools for optimizing re-renders in React applications. While they differ in their implementation—PureComponent for class components and React.memo for functional components—they both aim to prevent unnecessary re-renders by efficiently comparing props and state. Understanding their nuances and considering the nature of your data can significantly contribute to a smoother and more performant React application.
Using PureComponent
PureComponent is a class component that comes with a built-in shouldComponentUpdate method, automatically performing a shallow comparison of props and state before deciding to re-render. If there’s no change detected in the props or state, it prevents the component from re-rendering, thus optimizing performance.
However, it’s important to note that PureComponent performs a shallow comparison, so for deeply nested data structures or complex objects, it might not efficiently detect changes, potentially leading to unexpected re-renders.
Using React.memo
React.memo is a higher-order component (HOC) in functional components, offering similar optimization capabilities. It works by memoizing the rendered output of a component based on its props. When the component is re-rendered, React.memo compares the previous and new props. If they remain the same, it avoids re-rendering, optimizing performance.
Like PureComponent, React.memo also uses a shallow comparison, so caution is necessary when dealing with deeply nested objects or complex data structures to ensure accurate optimization.
Master Prop Drilling and Context API
Prop drilling is a common technique in React. But to truly master it, you need to explore the nuances. Learn how to pass data efficiently between deeply nested components without making your code unwieldy. And when it comes to state management, don’t stop at basic state or prop passing – take the leap into the world of Context API. Unlock its potential to streamline state management and make your codebase more elegant and maintainable.
Employ React Hooks
React hooks have changed the game when it comes to managing state and side effects in functional components. As an experienced software developer, you should embrace this modern approach.
useState
Use case: for managing component state
While class components have been the traditional home for managing state, functional components with hooks have proven to be more concise and readable. The useState hook is your gateway to efficient state management. It allows you to declare state variables and set their initial values, all within the function body. Gone are the days of constructor methods and this.setState() calls.
With useState, you not only simplify your code but also gain a deeper understanding of the state’s lifecycle, ensuring that your components behave predictably. Whether you’re working on a small project or a large-scale application, the useState hook becomes your go-to tool for handling component state.
useEffect
Use case: for handling side effects, like data fetching and DOM manipulation
Managing side effects, such as data fetching and DOM manipulation, is a fundamental part of many React applications. The useEffect hook provides an elegant solution to this common challenge. It allows you to perform these actions within your functional components without compromising on readability or maintainability.
Dive into the power of useEffect by understanding its lifecycle and dependencies. With it, you can orchestrate a symphony of asynchronous requests and fine-tuned updates, ensuring that your application responds seamlessly to user interactions. As an experienced developer, your ability to wield useEffect effectively is your ticket to crafting smooth, responsive user experiences.
useContext and useReducer
Use case: to simplify complex state management
For complex state management, React hooks like useContext and useReducer offer a lifeline. These hooks simplify the management of shared state and the handling of intricate application logic.
useContext empowers you to access context values from a higher-level component without the need for prop drilling. This results in cleaner, more maintainable code. As an experienced developer, you can harness the full potential of useContext to create a more intuitive and collaborative development process.
When faced with complex state transitions, useReducer comes to the rescue. It streamlines state updates and provides a structured approach to managing more intricate application logic. By implementing useReducer, you enhance your ability to manage complex state flows and improve the predictability and reliability of your applications.
Maintain a Consistent Code Style
In the world of React development, code consistency stands as a guiding principle that experienced developers understand is not to be taken lightly. Whether you’re working on a solo project or collaborating within a team, adhering to a uniform code style is more than just a best practice – it’s a cornerstone of efficient collaboration and enhanced code readability.
Why is Code Consistency Important in React?
Imagine you’re part of a team working on a complex React project. In this scenario, code consistency acts as the unifying force that keeps everyone on the same page. It ensures that no matter who is working on which part of the codebase, the overall structure and formatting remain consistent.
As your React project grows, consistent coding standards facilitate easier maintenance and debugging. It means you can confidently navigate through the codebase, swiftly locate issues, and make changes without constantly adjusting to different coding styles.
Embrace Automation with Prettier and ESLint
For the experienced developer, two indispensable tools come to the forefront: Prettier and ESLint. These tools automate the process of code formatting and style checking, respectively. Prettier, with its ability to automatically format your code, eliminates the need for debates on code formatting during code reviews. It’s your virtual code stylist, ensuring that your code looks clean and polished.
ESLint, on the other hand, is your code quality guardian. It enforces coding standards, identifies potential issues, and helps maintain a consistent coding style. These tools work in harmony to not only enhance your code quality but also make the entire development process more streamlined.
Establish Coding Standards for Consistency
In a team environment, the establishment and enforcement of coding standards are paramount. Experienced developers recognize that creating and adhering to a set of coding guidelines is a fundamental aspect of maintaining consistency throughout the project.
These standards encompass everything from naming conventions for component names and indentation to how to handle comments and spacing. It’s a collective agreement that ensures all team members are speaking the same coding language.
Keep a Clear Folder Structure
Complexity often goes hand in hand with the number of components involved. As a seasoned developer, you understand that managing numerous components within your project requires a systematic approach. The cornerstone of this approach lies in a well-structured component hierarchy, which greatly enhances the manageability of your codebase.
Clear Folder Structure for Improved Organization
The first step in achieving a well-organized React project is to define a clear folder structure. Picture your project as a library, and these folders as neatly arranged bookshelves. Each folder serves as a dedicated space for specific categories of components, ensuring that you can swiftly locate and keep clean code.
Efficient Grouping of Related Components
Within these folders, the grouping of related components is where the magic happens. By categorizing your components logically, you create an easily navigable code landscape. This approach allows you to access, modify, and extend different parts of your React project with ease, even when dealing with a multitude of React components. This systematic grouping not only simplifies your component management but also provides a clear framework for your development team, promoting effective collaboration.
Component Management for Large-Scale Applications
Now, consider the impact of this organization, especially in the context of large-scale applications. With a well-structured component hierarchy and a clear folder structure, you can seamlessly handle the complexities of expansive projects. The ability to maintain, troubleshoot, and scale your application becomes not just achievable but straightforward.
For the experienced developer, the practice of organizing components isn’t a mere technicality; it’s a strategic move. It’s a commitment to efficient code management and collaboration within your team. By maintaining an organized component hierarchy and implementing a systematic folder structure, you’re ensuring that your complex React projects are not just functional but also elegantly structured and highly maintainable.
Agree on Naming Conventions
Consistency in naming conventions is more than just a formality in React development – it’s the keystone of code readability and collaboration. To ensure your React projects are easy to understand and work on, follow the naming guidelines listed below.
Explore Common Naming Conventions
Start by exploring the most prevalent naming conventions used in the React community. Commonly, you’ll encounter conventions for components, variables, and files. Understanding these conventions provides a foundation for creating code that others can easily comprehend.
Learn When and How to Use Different Casing Styles
Naming conventions often involve casing styles, including camelCase, PascalCase, and kebab-case. Each of these styles has a distinct purpose and use case. Dive into when and how to employ each style:
camelCase: Typically used for variable and function names. It starts with a lowercase letter and uses uppercase for subsequent words (e.g., myVariableName).
PascalCase: Commonly used for naming React components and classes. It starts with an uppercase letter and capitalizes the first letter of each subsequent word (e.g., MyComponent).
kebab-case: Frequently used for file and directory names. It employs hyphens to separate words (e.g., my-component.js).
Prioritize Self-Explanatory Names for Clarity
While adhering to conventions is essential, it’s equally crucial to prioritize names that convey the purpose and function of the component, variable, or file. The goal is to make your code as self-explanatory as possible, reducing the need for extensive comments or documentation.
Optimize Component Loading
In the dynamic realm of React development, performance optimization is key, and lazy loading emerges as a valuable technique to achieve just that. Lazy loading, a concept that experienced developers embrace, involves deferring the loading of components until they’re actually needed. This approach holds a myriad of benefits for React applications, from improved initial load times to efficient resource allocation.
Experienced React developers recognize that one of the primary advantages of lazy loading is its ability to optimize initial load times. By loading only the most critical components required for the initial view, your application can start faster and provide users with a more responsive experience. This strategic resource allocation ensures that your application conserves bandwidth and minimizes the initial page load, particularly beneficial for applications with extensive component hierarchies.
To implement lazy loading in your React applications, the combination of React’s Suspense and React.lazy() proves to be a powerful duo. By suspending the rendering of specific components until they’re actually needed, you can significantly enhance the efficiency of your application, reducing the load on the client-side and improving the overall user experience. As a seasoned developer, incorporating lazy loading into your React projects is a step toward building applications that are not just functional but exceptionally responsive and resource-efficient, catering to the demands of modern web development.
Make Use of Functional Components
Functional components have gained prominence in React development. They have numerous advantages over class components.
Class components, which were the conventional way of building React applications, can become verbose and harder to follow as a project grows. They often require more boilerplate code, making it challenging to quickly grasp the core functionality of a component.
In contrast, functional components with hooks offer a cleaner and more straightforward approach. Learn when and how to refactor class components into functional components. Also, choose the right component type based on your project requirements.
Set up Error Boundaries
Handling errors gracefully is essential for creating robust applications. Experienced frontend developers understand that while preventing errors is ideal, preparing for them is equally essential. This preparation involves exploring the concept of error boundaries in React, a practice that not only safeguards your application from unexpected crashes but also ensures a seamless user experience.
To begin, delving into the realm of error boundaries is crucial. It involves understanding the architecture of React components that can gracefully intercept errors and prevent them from affecting the entire application. This level of control allows you to implement error boundaries strategically, enhancing your application’s stability.
Experienced developers recognize that this process involves wrapping specific components or sections of your application in error boundary components. By doing so, you gain the ability to capture and handle errors gracefully, preventing them from cascading throughout the entire application and potentially crashing it.
As you progress in your React development journey, implementing error boundaries in various components becomes second nature. These boundaries act as safety nets, ensuring that even if an error occurs, your application can continue to function and provide valuable feedback to users. Beyond safeguarding your application, well-implemented error boundaries offer valuable insights into the root causes of errors, enabling you to troubleshoot and fine-tune your code for even greater reliability. This approach extends to not only the React code itself but also to other crucial elements of your application, such as CSS and JavaScript, ensuring a comprehensive and robust solution.
What are other React tips?
Here’s a list of lesser-known React tips that can help improve your development workflow and code quality:
Use React Fragments for Cleaner JSX:
React Fragments (<React.Fragment> or the shorthand <>...</>) allow you to group multiple elements without adding extra nodes to the DOM. They are useful for rendering lists or components without unnecessary wrapper divs.
Use Memoization for Expensive Calculations:
React provides the React.memo() higher-order component and useMemo() hook for memoizing the results of expensive calculations. This can improve performance by preventing unnecessary re-renders of components.
Avoid Arrow Functions in JSX Props:
Avoid using arrow functions directly in JSX props, as this can create a new function instance on each render. Instead, define the function outside of the render method and pass it as a prop.
Use the React DevTools Extension:
Install the React DevTools browser extension for Chrome or Firefox. It provides a set of debugging tools specifically designed for React applications, allowing you to inspect component hierarchies, view props and state, and analyze performance.
Use Conditional Rendering with Null or Fragment:
Instead of using ternary operators for conditional rendering, you can use null or React Fragments to conditionally render components. This can result in cleaner and more readable code.
Optimize Component Re-renders with PureComponent:
Use React’s PureComponent class for components that only re-render when their props or state change. PureComponent performs a shallow comparison of props and state to determine if a re-render is necessary, potentially improving performance.
Avoid Using Index as Key in Lists:
Avoid using the array index as the key prop when rendering lists of components. Instead, use a unique identifier from your data, such as an ID or slug. Using the index as a key can lead to unexpected behavior when reordering or modifying the list.
Use React.forwardRef for Higher-Order Components:
When creating higher-order components that need to pass refs to their wrapped components, use the React.forwardRef() function. This allows the higher-order component to forward refs to the underlying DOM elements.
Leverage Context API for Global State Management:
Instead of using prop drilling to pass data down through multiple layers of components, consider using React’s Context API for global state management. Context allows you to share data across components without explicitly passing props.
Use React.memo() for Functional Components:
Similar to PureComponent for class components, React.memo() can be used to memoize functional components and prevent unnecessary re-renders. Wrap your functional components with React.memo() to optimize performance.
Build React Applications with our Best Practices
By deepening your understanding of React components, employing hooks, maintaining code consistency, and following best practices, you’ll be better equipped to tackle any React project with confidence. Combine these practices with a well-structured component hierarchy, naming conventions, lazy loading, functional components, and error boundaries, and you’ll be well on your way to becoming a React virtuoso.
Ready to build apps with React? Before you jump into development, create your app’s layout with UXPin Merge, a drag-and-drop UI builder that will help you design a responsive layout 10x faster. Discover UXPin Merge.
Design system tools help drive adoption while making it easier to scale and maintain. With so many options on the market, how do you know which one is right for your product?
Having worked with design tools for over a decade, we’ve put together seven of the best design system tools–including solutions for both: designers and engineers.
Bring a component library from your design system to UXPin and enjoy the interactivity of component-driven prototyping. Your own components are easier to maintain, keep in sync, and share with devs as a single source of truth for design and code. Request access to UXPin Merge.
Reach a new level of prototyping
Design with interactive components coming from your team’s design system.
UXPin
UXPin allows you to create and manage design systems directly within the platform. You can set up your design guidelines, resources, and documentation early in a project, which helps maintain consistency and ensures that everyone on the team is aligned.
The Design Systems tab in UXPin’s dashboard is the central hub where all your design systems are created and stored. This centralization simplifies access and management, making it easy for teams to work with design systems efficiently.
Flexibility in Creation: UXPin supports creating design systems from scratch or using existing libraries. This flexibility allows teams to either start fresh or build upon a foundation of pre-existing assets, accelerating the design process.
Drag-and-Drop Simplicity: Designers can simply drag and drop the design system’s components and assets to start building layouts, with no need for external files or plugins. With everything integrated inside UXPin, teams achieve maximum consistency and efficiency without needing to leave the tool to access design system documentation.
A well-organized design system includes various resources like colors, typography, assets, and UI patterns. UXPin excels at managing these resources by providing specific sections for each:
Colors and Typography: UXPin allows designers to easily add colors by typing HEX codes, importing from a website URL, or linking directly to CSS files. Similarly, text styles can be managed directly from the editor, making it easy to maintain consistent typography across all projects.
Assets and UI Patterns: Designers can upload images, icons, and other assets in various formats, including SVG. UXPin’s UI patterns feature allows designers to create reusable components and add them to the design system anytime, ensuring that all design elements are consistent and reusable.
Link to documentation: UXPin also makes it easy to link to external documentation for engineers, like a component library hosted in Storybook. This documentation is accessible through UXPin’s Spec mode, where developers can easily access properties such as colors, typography, CSS code, and the component’s origin.
As your design system matures, upgrade to UXPin Merge–a technology that lets you sync a design system from a repository to UXPin’s editor so designers can build layouts using fully functional code components.
With Merge, designers and engineers use the same components, thus creating a single source of truth for your design system. Any updates to the repository automatically sync to UXPin’s editor, notifying designers of the new version.
Teams can use UXPin’s Version Control to switch between different versions of the design system. They also have the freedom to use different versions for each project or prototype.
Zeroheight
Zeroheight is a hub for hosting your design system documentation to share across the organization. Unlike UXPin, where designers can draw components directly from the library, Zeroheight lets you host design files that team members must download and install.
The platform does, however, allow you to embed your design system’s components from Storybook with code snippets.
Zeroheight offers a standard dashboard layout for your design system, similar to Lightning, Polaris, Stacks, and others, with main navigation on the left and a table of contents to the right. This familiar layout helps with onboarding, allowing teams to navigate the design system to find what they need.
You can store all of your design system’s assets in Zeroheight, and the DS team can embed YouTube, Vimeo, Loom, or Google Drive videos for tutorials and explainers.
Supernova
Supernova is an excellent alternative to Zeroheight with a similar layout and features but slightly more functionality.
One of Supernova’s best features is the ability to automatically “convert design data into code or assets for any tech stack.” You can also include starter templates for developers in your product’s formats, like iOS, Android, React, Angular, Flutter, and others, ensuring engineers always have the correct code and assets at the beginning of every project.
Supernova’s VSCode extension syncs your design system to the popular IDE, so developers have everything they need in one place. You can also sync Supernova to popular design tools so designers don’t have to download and import files.
Storybook
Storybook is a popular tool for engineers who want to build and store UI components in isolation. Storybook also integrates with other design and development tools.
One of those tools is UXPin. With Merge’s Storybook integration, you can sync your library to UXPin’s editor so that designers can access the same components–creating a single source of truth.
A sandbox environment inside Storybook makes it easy for engineers to focus on individual UI components, including states and interactions. The dashboard layout allows you to organize and categorize your Storybook component library, so it’s easy to find what you need.
Storybook is a collaborative tool allowing you to review new components with teams and stakeholders to get input and sign-off before publishing. The Chromatic add-on lets you automate visual testing across browsers and gather feedback from QA teams.
Storybook automatically creates basic documentation for each UI component, which you can edit to include your design system’s guidelines, usage, principles, and more.
Pattern Lab is an open-source front-end environment for building, viewing, testing, and showcasing your design system’s UI components. The platform uses Brad Front’s Atomic Design principles that “stitches together UI components” to build patterns and templates.
You can build components in Handlebars or Twigs markup and use a separate JSON file to create variations. Pattern Lab automatically categorizes your elements and displays them in a dashboard-style UI.
Users can inspect each element from the dashboard to view the markup and HTML language with CSS classes. You can also include documentation for each component to give users more information and context.
If you’re building a custom design system management tool, Pattern Lab provides an excellent starting environment for you to customize.
Adobe XD
Out of the box Adobe XD doesn’t provide features for managing a design system, but it does integrate with design system tools like Zeroheight, Frontify, Zeplin, and others.
Like UXPin, designers can share component libraries and assets from your design system–albeit without the context and instructions of documentation and style guides.
The problem with using Adobe XD for mature design systems, is you have separate components for design and development, one code-based and the other image-based for designers to use in XD. You also need additional tools and plugins to sync and manage your design system and deal with design system contribution.
Design System Manager – InVision
Until 2024, Design System Manager (DSM) from InVision was another popular design system management tool. DSM looked and functioned very similar to Supernova or Zeroheight with a clear dashboard layout and intuitive navigation.
DSM synced to InVision’s design tool, so teams could drag components from the design system to build layouts. Like UXPin Merge, it kept design systems unified.
Sadly, InVision is no longer available. It was shutdown in January 2024. If you are looking for a compelling alternative, we recommend you try UXPin Merge.
What to Look for in a Design System Management Tool?
Your design system tool must provide a good user experience for your designers and engineers. Here are some essentials to look for when choosing design system management tools.
Version Control
Versioning is a crucial feature every design system must have. Version control creates a new file for every design system release so that teams can switch between versions. Some of the benefits of design system version control include:
Allows teams to update to the latest design system release when they’re ready–preventing interruptions to workflows
Allows teams to work on the same file simultaneously
Most design systems start as style guides (usually PDF) that designers use to design components and UIs. A style guide provides context and instructions for a design system’s patterns and components–for example, color HEX codes, typography scales, usage, dos and don’ts, etc.
Component Storage
Component examples are most helpful for developers because they’re interactive and include code snippets. This is important because it allows engineers to see exactly how the component is supposed to work.
Asset Storage
It’s important to keep all of your design system assets (logos, images, etc.) with your component library and documentation so everything is in one place.
Documentation & Guidelines
Documentation is the core of every design system. This documentation provides users with principles and guidelines to design products, including:
Every design system must be open to feedback and suggestions. This communication is also crucial for flagging bugs or errors. Including a contact page or comment form in your design system allows teams to submit feedback.
Which Design System Management Tool Will You Choose?
It’s your turn now. Pick a design system tool that fits your needs. Test every tool that we compared here and see which one you like best. To speed up interactive prototyping, scale design operations, and boost collaboration, try Merge. Read more about UXPin Merge.
Interactions are vital for prototyping because they provide usability participants and stakeholders with a realistic user experience. The problem many designers have is building interactive components is time-consuming, and the results are underwhelming in most design tools.
Discover component-driven prototyping with UXPin Merge and how you can use interactive components to create fully functional prototypes to enhance cross-functional collaboration and user testing. Visit our Merge page for more details and how to request access to this revolutionary UX design technology.
Reach a new level of prototyping
Design with interactive components coming from your team’s design system.
What are Interactive Components?
Interactive components (or interactive elements) are reusable UI elements from a design system and include interactivity by default. This interactivity is a game-changer for designers who usually work with UI kits and have to add interactions for every project.
Design teams can set interactions, states, and other animations to create immersive prototypes that accurately represent the final product.
Interactive Components Benefits
Here are several benefits of interactive components.
1. Fewer Artboards
Traditionally, creating interactions using a design tool required multiple artboards to achieve basic functionality. Designers can achieve the same results with a single artboard using interactive components.
2. Faster Time to Market
Creating fewer artboards means less design work for designers, and interactive components are reusable, so designers only have to set interactions once–saving significant time during the design process.
The result of all these time savings?–faster time to market.
3. Increased Consistency
UI kits increase design consistency, but they still leave some ambiguity regarding interactions. Designers must set these interactions themselves, leading to errors and inconsistencies–especially if the project doesn’t specify interactivity guidelines!
Interactive components have interactivity “baked in,” so everyone has the same states, microinteractions, and animations. These baked-in interactions increase consistency while enhancing efficiency because designers have fewer setup tasks and errors to fix.
4. Better Testing and Feedback
User and stakeholder feedback is crucial for design projects. This feedback drives decision-making to deliver user-centered products that align with business goals.
Most design tools lack the fidelity and functionality to perform simple interactions engineers achieve with a few lines of code. Interactive components make it easier to replicate code functionality, resulting in immersive, realistic prototypes for usability testing and stakeholders.
5. Increase Design System Adoption
One of the DS team’s jobs is evangelizing the design system to increase adoption. Interactive components are a powerful tool in design system evangelism because they create efficient workflows for product development teams, thus increasing the likelihood of adoption.
Connecting Merge to interactive components hosted in a repository allowed PayPal’s product teams (with little or no UX/design tool experience) to complete 90% of design projects 8X faster than skilled UX designers previously could.
Interactive components made the design process more accessible to non-designers because they reduced the learning curve significantly.
PayPal’s UX team built an interactive component library, including layouts and templates, and used React props to set design system constraints. Product teams simply drag and drop to build prototypes for usability testing and design handoffs.
Interactive components allow orgs to give more UX responsibilities to non-designers, like product teams (or engineers in the case of another UXPin Merge user, TeamPassword), thus scaling design with growing the UX team.
You can create interactions depending on the conditions like click, hover etc. on the ready components!
How to Incorporate Interactive Components in UXPin Prototypes?
To incorporate interactive components into your product prototypes, there are many steps you can take. Make sure that forms can actually be filled out; boxes can be checked; and links can be clicked on.
Make as many components of your design actually workable as you can; this allows users to have the experience of trying to use the product, and it can give you some insight into how your product works and how people will (or want to) use it.
Using Interactive Components in UXPin
Since the first release of UXPin more than a decade ago, interactive components have been core to our design tool, providing designers with a solution to build prototypes that accurately replicate the final product experience.
UXPin has four powerful features to create interactive components:
States: Create multiple state variants, each with different properties and interactions for a single component.
Variables: Capture user input data and use it to create personalized, dynamic user experiences.
Expressions: Javascript-like functions to create complex components and advanced functionality–no code required!
Conditional Interactions: Set if-then and if-else conditions based on user interactions to create dynamic prototypes with multiple outcomes to accurately replicate the final product experience.
One helpful strategy is including pre-built components (called “forms” at UXPin) that you can easily drag and drop in our platform. (No need to design these from scratch!)
Advanced Component Customization with UXPin
In UXPin, components are not just static design elements; they offer advanced customization capabilities that enable designers to create dynamic, interactive prototypes.
Unlike traditional static components, UXPin components can be enhanced with multiple states, conditional logic, and even real data integration. This flexibility allows designers to create high-fidelity prototypes that closely mimic the functionality of the final product.
Multiple States: Each component in UXPin can have multiple states (e.g., default, hover, active), which can be easily switched within the prototype. This feature allows designers to showcase different interactions and user flows without needing to create separate screens for each variation.
Conditional Logic: UXPin allows components to change dynamically based on user actions or predefined conditions. For example, a form component can display error messages or success notifications based on the user’s input, providing a realistic preview of the user experience.
Data Integration: Components in UXPin can integrate with live data sources through DreamFactory, a self-hosted platform providing governed API access to any data source, making them highly functional for testing and development. By connecting components to real data, designers can create prototypes that behave like real applications, enhancing the accuracy and effectiveness of usability testing.
4 Examples of Interactive Components in UXPin
Here are some interactive component examples from our examples page to see how you can start. For now, let’s see what you can do with states, variables, expressions, and conditional logic.
Merge takes component-driven prototyping and interactive components to another level. Instead of designers building components in UXPin, Merge imports a design system library from a repository.
These Merge UI elements are truly interactive components because behind them is code from a front-end framework like React, Vue, Angular, etc. You can import your organization’s design system or use an open-source library.
Designers don’t ever have to see or write code to use Merge components; they only work with the visual elements to build fully functioning prototypes. They also have access to component properties via UXPin’s Properties Panel to make changes within the design system’s constraints.
Imported Merge components appear in UXPin’s Design System Libraries in the left sidebar. Designers click or drag the UI elements they need from the sidebar to appear on the canvas. They can also use multiple design systems and UXPin elements and even combine them to create new components which they can save as Patterns.
Step 2: Make Changes
When designers click on a Merge component, its properties appear in the righthand Properties Panel. Those with technical skills can switch to JSX and adjust the code directly–a flexible workspace to match your preferred workflow.
Step 3: Share and Test
Designers can use Preview and Share for usability testing or when sharing prototypes with stakeholders. UXPin’s Comments feature allows teams and stakeholders to collaborate on prototypes and assign comments for team members to action.
Step 4: Design Handoff
Preview and Share also features Spec Mode, where engineers can inspect elements and click on Merge components to view and copy JSX changes. Designers can also include prototype documentation with annotations explaining each element and user interface.
Here’s a quick overview of how Figma’s interactive components feature compares to UXPin Merge components.
Single Source of Truth
Figma’s interactive components allow designers to replicate some fundamental interactions. However, organizations must still manage two design systems–one UI kit for designers in Figma and a separate component library hosted in a repository.
The problem with this workflow is it requires additional resources to manage and update two systems while increasing the likelihood of errors.
With Merge, design teams and engineers pull components from the same repository. Designers see visual elements, and engineers use the code behind them. Any changes to the repository automatically sync to UXPin and notify all teams of the update. Designers can also use Version Control to switch between different design system versions.
Fully Interactive
Figma’s interactive components aim to mimic code, whereas code powers Merge, giving design teams fully interactive UI elements.
With Figma’s interactive components, you’re essentially creating states. With Merge, you get complex functionality like real date pickers, data tables, graphs, inputs, responsive design, and much more!
Smoother Design Handoffs and Cross-Functional Collaboration
Design handoffs are seamless, almost non-existent when using Merge because designers and engineers use the same component library. Design teams can’t make changes outside of properties set by the design system, so there are no surprises for engineers.
Merge significantly reduces development time because engineers can copy/paste production-ready code from the repository and grab component props from UXPin to begin front-end development.
Figma’s components are vector-based artboards. Although many plugins convert Figma design files to code, it’s rarely usable, and engineers must still re-program it to meet their product’s format and structure.
In summary, Merge is a code-based technology that syncs design and development to form a single source of truth. Figma’s interactive components offer basic functionality (mostly state variants) that reduces the number of artboards designers use to create interactions.
Use our Figma plugin to copy Figma designs into UXPin. Reach higher interactivity of prototyping.
Bridging Design and Development with UXPin Merge
One of the standout features of UXPin is its Merge technology, which bridges the gap between design and development by allowing designers to use actual code components within their prototypes. This feature ensures that the components in UXPin are the same as those in production, maintaining consistency and reducing the risk of discrepancies between the design and the final product.
Code-Based Components: With UXPin Merge, designers can import coded components from a repository (like GitHub) and use them directly in their design projects. These components are not just visual representations; they are the actual components that will be used in the final product, complete with all the functionality and interactivity defined by the development team.
Single Source of Truth: By using code-based components, UXPin ensures that there is a single source of truth for both designers and developers. This approach eliminates the need for redundant handoffs and rework, as any changes made in the design are immediately reflected in the code, and vice versa. This seamless integration fosters better collaboration and streamlines the product development process.
How to Get Started Prototyping With UXPin Merge
Ready to get started with component-driven prototyping in UXPin using Merge? You have two options:
Open-source libraries: Open-source libraries are best for teams who lack an active dev support or they just want to get some basic understanding of how they can work with components before comitting to them.
Private design systems: If you’d like to sync your product’s private design system to UXPin, visit our Merge page to request access, and one of UXPin’s technical staff will contact you to help with onboarding.
Components are a fundamental aspect of modern UI design tools, enabling designers to create reusable elements that maintain consistency across projects.
While both UXPin and Figma offer robust component systems, they have distinct differences in functionality, flexibility, and integration with other tools. This post will explore these differences, helping you decide which platform might be better suited for your design needs.
Optimize design-to-development handoff, create prototypes that are full of interactive UI components, such as input fields, clickable menus, and sortable data tables. Simplify design with UXPin Merge. Discover UXPin Merge.
Reach a new level of prototyping
Design with interactive components coming from your team’s design system.
What are Components in Figma?
Figma’s documentation states, “Components are elements you can reuse across your designs. They help to create and manage consistent designs across projects.” Designers create Figma components using shapes, icons, images, text, and even other components. These components are vector-based, visual representations of the coded UI components engineers use to develop the final product.
Understanding vector-based design elements
While Figma’s vector-based are aesthetically accurate, their static nature means they’re graphical representations rather than functional UI elements or design patterns.
Figma’s Config 2023 releases make it easier for designers to build semi-interactive prototypes and components, but little has changed on the user testing end. Figma’s components still render the same; the company has just simplified the workflow.
Instead of using multiple frames to create interactivity, designers can apply the interactions, like state changes, directly to the components. While this is a massive step forward for simplifying designer workflows, it doesn’t change the tool’s vector-based limitations.
How Can You Use Components in Figma?
Here’s how Figma handles components:
Flexible and Easy-to-Use Components:
Component Variants: Figma introduced a feature called Component Variants, which allows designers to group similar components (like different button styles) into a single parent component. This simplifies the component library and makes it easier to manage and switch between different variations.
Nested Components: Figma supports nested components, where a component can be used within another component. This feature is particularly useful for creating complex UI elements that are built from smaller, reusable components.
Instance Overrides and Detachment:
Overrides: Figma allows for overrides in component instances. Designers can change text, colors, and other properties without affecting the master component. This flexibility is crucial for customizing components to fit different use cases without breaking the overall design consistency.
Detaching Instances: Figma allows you to detach an instance from its master component, effectively converting it into a standalone element. This feature provides greater flexibility but comes at the cost of losing automatic updates from the master component.
Collaboration and Real-Time Editing:
Real-Time Collaboration: Figma’s biggest strength is its collaboration capabilities. Multiple team members can work on the same file simultaneously, seeing each other’s changes in real-time. This feature is ideal for teams working in fast-paced environments or needing to collaborate closely on design projects.
Comments and Feedback: Figma includes built-in tools for commenting and feedback, making it easy for teams to discuss changes directly within the design file. This helps streamline the design review process and keeps all feedback centralized.
What are Components in UXPin–and how are they different?
The principle of UXPin components is the same as Figma, but instead of working with static images, UXPin renders HTML, CSS, and Javascript behind the scenes, giving designers greater fidelity and functionality to play with. When combined, UXPin components enable design teams to create fully interactive prototypes.
For example, designers can program any form field to mimic code-like functionality. Using text components, they can capture a username and password at registration and ask the user to use those same credentials to sign in, accurately replicating a sign-up flow.
Understanding interactive prototypes
Interactive prototypes closely mimic the final product by responding to user engagement like clicks/taps, swipes, scrolls, inputs, etc. These prototypes enhance testing because designers can present stakeholders and test participants with an authentic user experience.
There are two ways to create fully interactive prototypes:
Using code–requires engineering input
Using a code-based design tool–no engineering input
This code-based approach allows designers to create components like dropdown menus, accordions, image carousels, and other complex UI patterns.
How Can You Use Components in UXPin?
Here’s how UXPin handles components:
Dynamic, High-Fidelity Components:
Interactivity and States: UXPin allows you to create interactive components with multiple states, which can simulate real user interactions. For example, a button component can have hover, active, and disabled states, which are easily switchable within the prototype.
Conditional Logic: UXPin supports conditional interactions, meaning components can change based on user input or specific conditions. This feature is particularly useful for creating dynamic and interactive prototypes that mimic real-world applications.
Live Data Integration: UXPin components can integrate live data, making them highly functional for testing and development. This capability allows designers to connect components to real data sources, enhancing the fidelity of the prototype. For teams managing complex data flows, integrating with DreamFactory — a self-hosted platform providing governed API access to any data source — can seamlessly extend your prototyping capabilities with enterprise-grade data connectivity.
Code-Based Components with UXPin Merge:
Merge Technology: One of the standout features of UXPin is its Merge technology, which allows designers to import coded components from a repository (such as a GitHub repository). This means the components in UXPin can be the actual production-ready code, ensuring consistency between design and development.
Single Source of Truth: With Merge, there’s a single source of truth between designers and developers. Components behave exactly as they would in the final product, allowing for seamless handoffs and reducing the risk of design inconsistencies.
Component Instances and Overrides:
Editing Flexibility: In UXPin, component instances (copies of the original component) can have overridden properties, such as text or color, without affecting the master component. However, updates to the master component will propagate to all instances unless specific properties have been overridden.
Design System Integration: UXPin supports comprehensive design systems, which can include components, patterns, and documentation. This makes it easy to maintain a cohesive and consistent design language across projects.
Key Differences Between UXPin and Figma Components
Both UXPin and Figma offer powerful component systems, but they cater to different needs and workflows. UXPin is ideal for teams that require high-fidelity prototypes and a seamless transition from design to development, while Figma is perfect for collaborative design work with a focus on quick iterations and feedback. Understanding these differences can help you choose the right tool for your specific project needs.
Interactivity and Prototyping: UXPin excels in creating high-fidelity, interactive prototypes with conditional logic and live data integration, making it ideal for projects that require detailed user testing and development-ready components. Figma, on the other hand, is better suited for quick iterations and real-time collaboration, with less focus on prototyping complex interactions.
Code Integration: UXPin’s Merge technology provides a direct link between design and development, allowing for production-ready components to be used in design. This is a unique feature not present in Figma, which focuses more on design collaboration rather than integrating with code.
Design System Management: Both tools support design systems, but UXPin offers more robust features for integrating and maintaining a single source of truth across design and development. Figma’s design system tools are excellent for managing visual assets and components but lack the depth of integration with development workflows that UXPin provides.
Collaboration: Figma is unparalleled in its collaboration features, allowing multiple designers to work simultaneously in a shared environment. UXPin offers collaboration features but is more focused on the transition from design to development, making it a stronger choice for teams looking to integrate their design system closely with their codebase.
While the setup requires some engineering input and technical expertise, once this initial process is complete, Merge automatically syncs updates to UXPin, and notifies design teams of the new release.
You can import any kind of component, pattern, or page template using Merge, including graphs, data tables, date pickers, video/audio players, dashboards, and more.
UXPin Merge vs. Figma Dev Mode
Figma’s Dev Mode allows engineers to inspect elements from a technical perspective, including CSS and front-end code. Figma automatically generates this generic code in a design-to-code workflow. While this code is helpful, it’s not production-ready and, in most cases, redundant because it won’t align with every product’s syntax and programming practices.
UXPin Merge works the opposite way in a code-to-design workflow: sending visual components from a repository rather than generating generic code from the design tool. The Merge components designers use in UXPin are exactly the same as those devs use for front-end development. Component properties, including interactivity, sync to UXPin, so designers never have to set these up or make adjustments.
We’ll use two identical Material Design button components to illustrate the differences between Figma and Merge. We’re using Material Design 2’s UI kit in Figma and imported MUI’s React components into UXPin using Merge–MUI uses Material Design as a foundation for its React component library.
We’ve dragged a component from each UI library onto the canvas without applying any changes.
Figma:
UXPin:
You’ll notice the UXPin component is interactive by default, with hover and click interactions defined in the repository. The Merge component is fully interactive because it’s an actual code component rather than a graphical representation.
The Figma component is not interactive by default because it’s essentially an image. Designers must set these interactions up in the design tool before prototyping. They must also share lots of supporting documentation and component variations at design handoff so engineers understand what to build.
Spec Mode vs. Dev Mode
Merge’s Spec Mode is also very different from Figma’s Dev Mode. Dev Mode allows designers to inspect elements with suggested CSS and other code–which we’ve already established is not production ready. Designers must also share each Figma component’s variants, interactions, animations, triggers, etc.
UXPin only displays the Merge component’s JSX properties (spacing, typography, size, etc.) for the prototype’s default or initial state. Developers already have the same UI library, which they import into their project from the same repository to start development. They simply copy/paste the JSX code from UXPin and apply it to the relevant component in their IDE.
Developers don’t need additional documentation detailing each component’s interactions, triggers, etc., because the design system team has already defined these properties in the repository. These baked-in constraints mean designers can’t change a component’s interactivity, whereas, in Figma, they can detach a component instance from its master component and change its properties.
Prototyping in Figma vs. Prototyping in UXPin
For the most part, the design environment, tools, and workflow is similar in Figma and UXPin. The differences are following.
Frames vs. pages
One of the biggest differences is Figma follows a frame and artboard workflow, while UXPin uses pages with a separate canvas for each screen. Designers can visualize the pages on a single screen as they would in Figma using UXPin’s Overview.
Adding interactivity
Figma’s Prototype feature allows designers to add basic interactivity with limited user actions. Config 2023 releases make it easier to change component states using Variables, but these are still far from the code-like experience necessary for accurate testing.
UXPin’s Interactions include many user triggers and actions for desktop and mobile prototyping. As Merge components are interactive by default, designers focus primarily on navigational interactions like page transitions and popups, allowing for faster designing and iterating.
Testing scope
Due to Figma’s lack of fidelity and functionality, designers are limited by what they can test using the platform. Design teams often use plugins, integrations, or other tools to increase prototyping scope, which increases costs, time, and other resources.
With UXPin Merge, designers can build fully interactive prototypes indistinguishable from the final product without plugins or integrations. They can also use APIs to connect to external services, significantly increasing testing scope. These advanced prototypes allow designers to collect meaningful insights during testing to make accurate design decisions for better product outcomes.
Ready to experience the benefits and ease of working with a code-to-design workflow? Visit our Merge page for more details and how to request access to this revolutionary technology.
In 2016, we did an intense user research campaign. After 40+ interviews with design and engineering leaders and a survey of 3,100+ designers and developers, we concluded traditional design tools aren’t good enough to serve modern product development.
Workflows are too fragmented, disconnected, and unfocused. Design system tools must be a complete hub for design and development.
We summarized our findings with three simple rules for our first release of UXPin Design Systems:
Dynamic environment, not static documentation
An actionable system, not a reference document
Facilitate a connection between design and development, not just a library of design patterns
UXPin’s Design System Libraries support various stages of design system maturity. The final stage is syncing design and development to create a fully integrated system where designers and engineers share one component library—a single source of truth.
UXPin Merge allows you to import code components from your design system’s repository as visual design elements. Designers can use these components to build prototypes using a simple drag-and-drop workflow. Merge components render on UXPin’s canvas exactly as they do in the repository, enabling designers to create fully functioning prototypes indistinguishable from the final product. Request access to UXPin Merge.
Reach a new level of prototyping
Design with interactive components coming from your team’s design system.
How to Create a Design System in UXPin
To begin, open the Design Systems tab in the top bar of your UXPin dashboard. Here, you can create a new design system or view existing ones. Let’s start by clicking the “Create Design System” button.
You can build a design system in two ways:
Using an Existing Library: UXPin provides pre-built libraries that you can use as a foundation.
Starting from Scratch: For this tutorial, we’ll start with a blank slate by clicking “Create from Scratch.”
Note: All examples here are created within UXPin, but UXPin Design Systems also support Sketch and Figma imports.
Create a Library of Styles
A solid design system begins with the most prevalent design elements—text styles and color palettes. UXPin lets you pull these directly from your design projects and save them in a shared Design Systems Library, which acts as an actionable toolkit for your product’s design system.
Adding Colors and Text Styles
To add colors or text styles, select the relevant layers in Sketch or UXPin. UXPin will automatically pull the styling and add it to your system. These styles stay synced with the library in UXPin or Sketch, making your system dynamic and up-to-date.
Typography: Text styles can be added directly from the Editor, allowing you to maintain a consistent typography system across all designs.
Colors: Add colors by typing their HEX code and pressing “Enter,” importing colors from a website URL, or linking directly to a CSS file. This ensures that all color palettes are centralized and easy to update.
Create a Library of Assets
Next, save your graphic design assets and share them alongside your colors and text styles—such as logos, approved stock photos, or icon libraries. These assets can be stored in the Design Systems Library, providing your entire team with easy access to a centralized design toolkit.
Assets: Upload images and icons in various formats, including SVG. This makes it easy to maintain a library of all design assets that can be reused across different projects.
Create an Actionable Library of Patterns
Design patterns are essential components and elements in your design system. In UXPin, you can create, save, and share these patterns, including those imported from Sketch. You can also add interactivity and animations, enabling designers to reuse these patterns without starting from scratch for each new project.
UI Patterns: These are reusable components and elements designed and prototyped in UXPin. Add them to your design system to ensure consistency and streamline the design process.
Generate a System and Keep it in Sync
Having a library of shared assets is an excellent first step, but it’s not enough to solve the problem of scaling software development.
Most solutions stop here and don’t move toward development. We’ve decided to go all the way.
In UXPin Design Systems, all the colors, text styles, assets, and patterns become a living system with one click. When you add new patterns, text styles, assets, or colors, UXPin automatically updates your design system and generates documentation. These changes are immediately available to all team members and stakeholders.
Add Documentation for Developers
Once you’ve built your system, you can add documentation, including code snippets for patterns and components. Developers can view this documentation with prototypes and mockups, keeping style guides, assets, and instructions in one platform for smoother, faster design handoffs, especially when paired with backend integration tools like DreamFactory, which provides governed API access to connect your design system documentation with enterprise data sources.
Make Documentation Actionable
Design system documentation shouldn’t just be a reference document. It must be where the action is – inside the design projects.
With UXPin, your design system documentation follows your projects.
When you deliver a new release, UXPin automatically generates documentation from the product’s design system, including markup, imports, names of Javascript components, etc
Scaling Design Systems With UXPin Merge
UXPin’s Design System Libraries take you from stage one to three in design system maturity. The final stage is syncing design and development to create a fully integrated design system where designers and engineers share one component library–a single source of truth.
Merge imports code components from your design system’s repository as visual design elements designers can use to build prototypes using a simple drag-and-drop workflow.
Merge components render on UXPin’s canvas exactly as they do in the repository, allowing designers to build fully functioning prototypes indistinguishable from code.
This high degree of fidelity and code-like functionality enables design teams to get meaningful, actionable feedback from usability testing and stakeholders who can interact and engage with prototypes as they would the final product.
Single source of truth
Merge also significantly enhances the product development process by centralizing the design system’s management and distribution from a single repository–no more managing UI kits and a component library with separate instructions and documentation to maintain.
Any changes to the repository automatically sync to UXPin, notifying teams of the update. With UXPin’s Version Control, designers can choose which projects to update and even revert to earlier design system releases when needed.
UXPin’s Patterns enable design teams to create new patterns and templates by combining Merge components. They can use elements from the design system or combine components from other design systems.
UXPin’s Patterns are also helpful for saving multiple versions or states of a component, template, or screen, allowing designers to swap out and try different variations during testing or feedback sessions with stakeholders. These “on-the-fly” changes allow designers to iterate faster and maximize valuable testing time.
Final Thoughts
To recap, setting up a design system in UXPin involves:
Creating and organizing design elements like colors, typography, assets, and UI patterns.
Documenting each element with descriptions, code, and links.
Using the Spec mode to inspect elements and ensure consistent implementation across your project.
Scaling and syncing design and development with UXPin Merge to maintain a single source of truth.
By following this guide, you’ll be able to create, manage, and scale a comprehensive design system that supports your team from design to development. Visit our Merge page and explore how UXPin can transform your design workflow today! Request access to UXPin Merge.
Turning a website into an application involves adapting and extending the functionalities and design of the website to fit the framework and user expectations of a mobile, desktop or web app. Let’s see how to make website an app, when is the right time to do so, and which websites became apps.
Design on-brand and responsive UI with UXPin Merge, a drag-and-drop UI builder for creating production-ready interfaces with React components. Build mobile, web or desktop apps, cross-platform experiences, and other digital products with the same components. Try UXPin Merge for free.
Design UI with code-backed components.
Use the same components in design as in development. Keep UI consistency at scale.
What does it mean to create an app out of a website?
An app created on top of an existing, popular website is a software application designed for desktop, web or mobile devices (such as smartphones and iPads) that extends and enhances the functionalities, user experience, and accessibility of the original website.
This type of app leverages the established user base and features of the website, offering a more optimized, intuitive, and interactive interface.
It typically includes capabilities like offline access, push notifications, and seamless integration with device-specific features (e.g., GPS, camera, biometrics), providing users with a more engaging and convenient way to access the same services and content available on the website.
7 examples of turning a website into an app
Online Newspaper: A native app can offer push notifications for breaking news, offline reading capabilities, and a more personalized user experience.
E-Commerce Site: An app can provide a more streamlined shopping experience, with features like notifications for deals, easier access to purchase history, and better integration with mobile payment systems.
Recipe website: An app can provide instant access to recipes. The app can offer personalized recommendations, AI support, and a vibrant community where app users can share their culinary creations and exchange tips.
Event Management and Ticketing: An app can enhance user experience by offering easy access to event schedules, ticket purchases, and real-time updates through integrated event management software. Users can receive notifications about upcoming events, access their tickets offline, and get personalized recommendations for future events.
Social Network: Transforming a social networking site into an app can enhance user engagement through push notifications, real-time messaging, and better integration with device features like the camera and contacts.
Educational Platform: An app can facilitate better learning experiences with offline access to content, interactive quizzes, and real-time collaboration tools. Features like push notifications can remind users about upcoming classes or assignments. Platforms like Treehouse, which offers online coding education with browser-based learning and live instructor support, demonstrate how educational apps can provide structured learning paths with college credit opportunities.
Travel and Hospitality: A travel app can offer real-time updates on bookings, flight statuses, and itineraries. It can also provide offline access to essential travel information, personalized recommendations, and integration with maps for navigation.
Why should you convert a website into an app?
The decision to transform a website into an app should be based on several key factors and the specific goals of your business and users.
High Mobile Traffic
If your website attracts a significant portion of its traffic from mobile devices, it might be the right time to develop an app. Mobile apps can offer a superior user experience compared to mobile websites by providing improved performance, more intuitive navigation, and better accessibility.
As users increasingly rely on their smartphones for online activities, having an iOS or Android app ensures that your content and services are optimized for mobile usage, leading to higher user satisfaction and retention.
User Engagement and Retention Needs
Increasing user engagement and retention rates is crucial for the success of any online app. Apps can significantly boost these metrics by offering personalized experiences and direct communication through push notifications.
Additionally, apps can provide offline access to content, ensuring that users can engage with your services even without an internet connection. This consistent and personalized interaction helps build a loyal app user base.
Enhanced User Experience Requirements
Some features and functionalities are more seamlessly integrated into mobile platforms than web environments. If your website relies on device-specific capabilities such as GPS, camera access, or offline functionality, transitioning to a mobile app can be beneficial.
Apps can utilize these features more effectively, resulting in a more intuitive and seamless user experience that leverages the full potential of mobile devices.
Frequent User Interaction
For websites where users frequently interact for updates, transactions, or communications, an app can provide a more streamlined and efficient experience.
Whether it’s a social media platform, e-commerce site, or news outlet, apps offer faster access and real-time updates through push notifications. This immediate and smooth interaction can significantly enhance user satisfaction and convenience.
Improved Performance and Speed
If your website suffers from performance issues or slow load times on mobile devices, developing an app can be a viable solution. Desktop or mobile apps generally offer better performance due to local storage, caching, and optimized code, which leads to quicker load times and a smoother user experience. This performance boost can be crucial in retaining users who might otherwise be frustrated by slow website interactions.
Competitive Advantage
In a competitive market, having a mobile app can give you an edge over competitors who do not offer one. If your competitors have apps and it provides them with a competitive advantage, developing your own app becomes essential to stay relevant. An app can help attract more users, meet market expectations, and offer a modern, convenient way for users to engage with your brand.
Advanced Features
Websites that offer or plan to offer advanced features such as augmented reality, complex animations, or real-time functionalities can benefit from being transformed into mobile or website apps.
Apps are better suited to handle these advanced features and can deliver a more engaging and interactive user experience. This capability can be particularly important for businesses looking to innovate and provide cutting-edge services.
User Feedback
Listening to user feedback is vital for any business. If users are requesting a web, desktop or mobile app or expressing dissatisfaction with the current web experience, it’s a clear indicator that developing an app should be a priority.
Addressing user feedback by offering a new app can significantly improve user satisfaction and loyalty, demonstrating that you value and respond to their needs.
Brand Loyalty and Marketing
Mobile apps can strengthen brand loyalty and provide a direct marketing channel to your users. Through push notifications, apps allow you to communicate directly with users, informing them about updates, offers, and important events. This direct line of communication that a webpage can’t compete with helps keep your brand top-of-mind and enhances customer loyalty by providing timely and relevant information.
Monetization Opportunities
If there are potential monetization opportunities through in-app purchases, subscriptions, or ads, developing an app can be a strategic move. Apps can offer more effective and varied monetization strategies compared to websites, allowing you to tap into new revenue streams. This can be particularly beneficial for businesses looking to diversify their income sources and maximize profitability.
How can you make a website into an app?
Initial Analysis and Planning
To begin transforming your website into an app, start by defining clear objectives. Determine the primary goals, such as improving user engagement, offering offline access, or enhancing the overall user experience. Next, analyze your existing website to evaluate its core functionalities, user interface, and user experience.
Don’t forget to devote some time to understanding app users. Conduct user research through surveys, interviews, and analytics to gather insights into what users expect from the app and identify any pain points in the current web experience.
Remember that apps require additional design, such as creating an app icon, home screen or a nav bar placed on the bottom or the top of the app.
Choosing the Type of App
Decide on the type of app that best suits your needs. If you opt for a native app, you’ll be developing specifically for iOS (using Swift or Objective-C) or Android (using Java or Kotlin), which offers the best performance and access to all device features but requires separate codebases and higher development costs.
Alternatively, a cross-platform app, developed with frameworks like React Native, Flutter, or Xamarin, allows for a single codebase for both platforms, reducing development costs. Although cross-platform apps may have slightly less performance compared to native apps, they are a cost-effective solution. Working with a Flutter development agency can help implement this cross-platform approach effectively.
Another option is a Progressive Web App (PWA), which enhances your website to provide app-like experiences without the need for app store distribution and can work offline, though with limited access to device features.
Design Phase
In the design phase, create prototypes to visualize the app’s user interface and user experience. The best tool to do that is UXPin Merge which allows you to build UI fast using pre-made React or Tailwind UI components. With this, you can create an app’s interface super fast and without having to waste time on translating design to code — your design is code by default. Just check out our responsive dashboard tutorial to see how UXPin Merge speeds up design.
Validate your design decisions by conducting usability testing, gather feedback, and then, iterate on the design to ensure that you’re providing a good user experience.
App Development Phase
Set up your development environment by installing the necessary development tools and frameworks based on your chosen app type. Ensure version control with tools like Git. Begin frontend development by implementing the UI using appropriate frameworks, such as React Native or Flutter, ensuring the app is responsive and works well on various screen sizes.
For mobile app backend development, connect the app to your existing website’s backend API or create new API endpoints if needed. DreamFactory is a self-hosted platform that provides governed API access to any data source, making it easier to connect your app securely to databases and backend services with role-based access control. Implement core features by translating essential website functionalities to the app and adding mobile-specific functionalities like push notifications, offline access, and device integration (e.g., camera, GPS).
Testing Phase
Conduct thorough testing to ensure the app functions correctly and provides a seamless user experience. Perform functional testing to check that all features work as intended, using tools like Appium, XCTest, or Espresso.
Conduct usability testing to ensure the app is intuitive and user-friendly. Optimize for speed and responsiveness through performance testing on multiple devices and operating systems. Ensure data security and privacy by conducting security testing, including penetration testing and vulnerability assessments.
Deployment Phase
Prepare for the app launch by setting up app store accounts on the Apple App Store and Google Play Store. Create app store listings with compelling descriptions, screenshots, and promotional materials.
Conduct beta testing by releasing the app to a group of beta testers for final feedback, using platforms like TestFlight for iOS and Google Play Console for Android. Once ready, submit the app to the iOS App store for iPhones or Google Store for Android devices and plan a marketing campaign to promote the app.
Post-Launch Phase
After launching, monitor the app’s performance using analytics tools to track user behavior and app metrics. Keep an eye on app store reviews and ratings to gather user feedback. Regularly update the app to fix bugs, improve performance, and add new features.
Transform your website into an app fast
Design is crucial in transforming a website into an app because it directly impacts user experience and engagement. A well-designed app reduce user frustration and increase overall satisfaction and makes the transition from website to an app seamless and risk-free.
Create app designs with UXPin Merge. Drag and drop coded components to build stunning UI without compromising on quality. Bring your coded design system elements or use pre-built ones and design experiences that make your design shine. Try UXPin Merge for free.
Most front-end developers constantly seek ways to streamline our workflows and craft responsive, aesthetically pleasing websites. Tailwind CSS, with its utility-first approach, has emerged as a powerful tool to do just that – build website interfaces. If you’re looking to optimize your use of Tailwind, you’ve come to the right place. In this article, we’ll explore Tailwind best practices to help you harness the full potential of this utility-first CSS framework.
Bridge the gap between design and development by using fully coded Tailwind components in design. Use UXPin Merge with a built-in Tailwind UI library and empower your team to create consistent, high-quality user interfaces faster than ever before. Make it easier to collaborate, iterate, and innovate. Try UXPin Merge today and see how it can transform your Tailwind development process. Request access now.
Design UI with code-backed components.
Use the same components in design as in development. Keep UI consistency at scale.
What is Tailwind CSS?
Before diving into the best practices, let’s briefly discuss what Tailwind CSS is. Tailwind is a utility-first CSS framework that allows you to design directly in your markup by using classes. Unlike traditional CSS frameworks, which provide pre-designed components, Tailwind gives you low-level utility classes, such as flex, pt-4, text-center, and grid, enabling you to build custom designs without writing any CSS.
With Tailwind, you can build UIs faster. The framework’s utility classes allow for quick iterations and tweaks, enabling you to see changes in real-time as you code.
3. Maintainable Codebase
Using Tailwind leads to a more maintainable codebase. With a consistent set of utility classes, your styles remain clear and predictable, which is especially useful in large projects with multiple contributors.
Best Practices for Using Tailwind CSS
1. Leverage Tailwind’s PurgeCSS
One of the most common concerns with Tailwind is the potential for bloat due to the large number of utility classes. However, by configuring PurgeCSS, you can automatically remove unused CSS, reducing the final file size and improving performance. Tailwind makes it easy to integrate PurgeCSS into your build process:
module.exports = {
purge: ['./src/**/*.html', './src/**/*.js'],
// other configurations...
};
By specifying the files where your classes are used, PurgeCSS will strip out any unused styles, ensuring your CSS is as lean as possible.
2. Use Tailwind’s Configuration File
Tailwind’s configuration file (tailwind.config.js) is your best friend when it comes to customizing your design system. This file allows you to extend the default theme, add new utility classes, and even define custom screens and breakpoints.
This not only keeps your code DRY (Don’t Repeat Yourself) but also ensures consistency across your project.
3. Adopt a Mobile-First Approach
Tailwind encourages a mobile-first design methodology, which is an industry standard in modern web development. By default, Tailwind’s breakpoints are designed with mobile-first in mind:
<div class="text-center sm:text-left md:text-right">
<!-- Your content here -->
</div>
In this example, the text is centered by default, left-aligned on small screens (sm), and right-aligned on medium screens (md). This approach ensures that your design adapts gracefully to different screen sizes.
4. Utilize Tailwind UI
To save even more time, consider integrating Tailwind UI, a library of pre-designed components built with Tailwind CSS. Tailwind UI provides a robust set of components, from navigation bars to form elements, which you can easily integrate into your project.
Tailwind UI not only accelerates development but also ensures that your designs adhere to best practices in accessibility and responsiveness.
Try a built-in Tailwind UI library in UXPin Merge, a drag-and-drop design tool that helps you visualize UI with code-backed components that engineers use in production. If you can’t see a component in UXPin, you can use Custom Component and paste in the code from the Tailwind UI website or generate one with AI Component Creator. Try it for free.
5. Optimize for Performance
Even with PurgeCSS, it’s essential to keep an eye on performance. Tailwind CSS can lead to an excessive number of classes in your markup. While this is generally not an issue, it’s good practice to use reusable components and minimize redundancy.
Moreover, consider using the @apply directive to create reusable styles within your CSS:
This approach reduces repetition in your HTML and keeps your codebase cleaner.
6. Stay Organized with Components
As your project grows, it’s crucial to maintain an organized codebase. Tailwind’s utility classes can lead to cluttered HTML if not managed properly. Grouping related classes together and using semantic class names can make your code more readable:
<button class="btn btn-blue">
Click me
</button>
In this example, btn and btn-blue are reusable classes that encapsulate specific styles. This method enhances readability and simplifies future updates.
While utility classes are powerful, overusing them can lead to verbose and cluttered HTML. Strive for balance by using Tailwind’s @apply directive in your CSS to avoid repetitive code.
2. Ignoring Accessibility
Accessibility should never be an afterthought. Tailwind’s documentation provides guidance on how to build accessible UIs, but it’s your responsibility to implement these practices. Use appropriate ARIA attributes, and always consider users with disabilities.
3. Not Taking Advantage of the Full Ecosystem
Tailwind CSS is part of a larger ecosystem that includes Tailwind UI, Headless UI, and third-party plugins. Ignoring these resources can slow down your development process. Explore and integrate these tools to maximize your efficiency.
Conclusion
Tailwind CSS is a powerful framework that, when used correctly, can significantly enhance your front-end development workflow. By following the best practices outlined in this article—such as leveraging PurgeCSS, customizing the configuration file, and adopting a mobile-first approach—you can build responsive, maintainable, and scalable websites with ease.
Don’t forget to explore Tailwind UI for pre-built components that can save you time and ensure that your designs are both beautiful and functional. Tailwind’s utility-first approach might require a shift in mindset, but once mastered, it will become an indispensable part of your development toolkit.
As you refine your Tailwind CSS skills, why not take your front-end development to the next level with UXPin Merge? UXPin Merge allows you to use Tailwind UI components and create a unified design environment where design and development are perfectly aligned.
Imagine designing with real Tailwind components, complete with all the responsiveness and interactivity built in. No more static mockups or handoffs—just a seamless workflow where your designs are as close to the final product as possible. UXPin Merge ensures that what you design is exactly what you’ll get in production, saving time and reducing errors. Request access to UXPin Merge.
Code-to-design tech seems daunting to you? Don’t worry. We created a mini-series in which Rachel, a skilled teacher of frontend courses, shows you how to design an interface with our code-to-design technology – UXPin Merge. This blog post will provide you with an exhaustive review of this tutorial series, breaking down its strengths and key takeaways.
Follow along the tutorial. UXPin Merge is a technology for designing with code-backed components to ensure fast handoff, product development, and more accurate user testing results. Build your first prototype today. Try UXPin Merge for free.
Design UI with code-backed components.
Use the same components in design as in development. Keep UI consistency at scale.
Where Can I Find UXPin Merge Tutorial?
The full mini-course is available to you on YouTube. Here’s the full playlist that contains five videos.
The videos cover the following topics:
Exploring the Power of UXPin Merge: Introduction (Video 1)
Exploring the Power of UXPin: A Deep Dive into UI Design (Video 2)
The Magic of UXPin Merge with MUI Components (Video 3)
Designing an Employee Portal Using MUI Components (Video 4)
How to Seamlessly Transition from Design to Development (Video 5)
What is UXPin Merge Tutorial about?
The UXPin Merge Tutorial mini-course on YouTube is specifically created for developers and designers eager to get a grasp on using UXPin Merge effectively. Over a series of short, concise videos, the course aims to cover the essential aspects of setting up your React component library, integrating it into UXPin, and leveraging its full potential for both design and development.
Course Overview
The UXPin Merge Tutorial Mini-Course on YouTube promises to be a concise yet informative guide tailored towards developers. The course is segmented into bite-sized videos, making it easier to digest each concept. Let’s break down what each segment covers.
The course begins with a comprehensive guide on setting up your environment. This is a crucial step, especially for those who are new to UXPin Merge. The tutorial walks you through installing the necessary software, setting up your UXPin account, and integrating it with your Git repository.
What stands out in this segment is the instructor’s detailed, step-by-step approach, ensuring that no one is left behind.
The instructor takes care to explain not just the “how” but also the “why,” setting a solid groundwork for the course.
Understanding the Basics of UXPin Merge
The course delves into the basics of UXPin Merge. This segment begins with a brief introduction of what Merge is and why it’s beneficial for React developers. It then transitions into a hands-on tutorial about using code-backed components, based on built-in MUI components that UXPin offers on trial.
Using Design Editor
Rachel goes through the ins-and-outs of UXPin’s editor to help you understand how to use the tool. She describes all the panels, tools, and features that are available to you at first glance. It’s a perfect introduction to those of you who are unfamiliar with design tools.
She explains how to change the canvas size, how to access documentation, and prep your workspace.
Using React Components
The tutorial shows you how to use built-in MUI components within UXPin. Unlike other prototyping tools, UXPin uploaded fully functional components from MUI library, so you can be sure that what you put on the canvas, you get in development.
Some functionalities that Rachel went through:
Dragging and Dropping – placing components onto the design canvas.
Nesting Components – creating more complex components out of those available.
State Management – changing component states such as hover, active, and disabled.
Accessing Documentation – the course help you move between MUI docs and UXPin.
What about Advanced Integration Techniques?
There are also more advanced integration techniques that the course didn’t touch upon. This is where many developers will find the real value, as it explores how to leverage UXPin Merge for complex projects. UXPin Merge also allows you to bring React components from Git repository or via npm, and even importing Storybook components if that’s what you use in development.
What about Collaboration Features?
One of UXPin Merge’s standout features is its collaboration capability. Thie course fails to discuss:
Shared Workspaces: Setting up shared workspaces for team collaboration.
Version Control: Tracking changes and reverting to previous versions if needed.
Feedback Loop: Commenting and providing feedback directly within the UXPin interface.
This would be useful for teams, as it expounds on how UXPin Merge can streamline the collaborative aspect of design and development.
Practical Examples and Hands-On Segments
Theory is crucial, but nothing beats hands-on practice. The mini-course includes several practical examples and hands-on segments where you can apply what you’ve learned. You’ll be guided on how to:
Visualize Components – Leverage UXPin’s interface to see MUI components in action.
Interactive Prototyping – Create interactive prototypes using drag-and-drop functionality in UXPin.
These examples are extremely beneficial, especially for those who learn best by doing.
Creating an Employee Portal UI Design
One of the mini-course sections walks you through creating an employee portal using your React components in UXPin. This is an excellent exercise, showcasing the power of combining functional components with platforms that provide governed API access to backend data sources, enabling your design prototypes to integrate seamlessly with real enterprise systems.
5 Tips for Maximizing Your Learning
To get the most out of the UXPin Merge Tutorial Mini-Course, here are some tips and tricks compiled from the experiences of past learners.
Take Notes
As you go through each segment of the course, make it a habit to take notes. This will help you retain the information better and serve as a handy reference when you start implementing what you’ve learned.
Practice Alongside
While it might be tempting to binge-watch the entire series, it’s advisable to practice alongside the instructor. Set up your environment as you go, import your components, and try to build your prototypes. This hands-on approach will solidify your understanding. Try UXPin Merge for free.
Ask Questions
If you find yourself stuck at any point, don’t hesitate to ask questions. The YouTube comments section is a great place to engage with the instructor and other learners.
Revisit Difficult Sections
If you find certain sections particularly challenging, don’t hesitate to revisit them. The beauty of online tutorials is that you can go over difficult concepts as many times as you need until they click.
Experiment
Once you’re comfortable with the basics, don’t be afraid to experiment. Try building different types of prototypes, customize your components, and explore the advanced features of UXPin Merge. The more you experiment, the more confident you’ll become in using the tool.
Is the UXPin Merge Tutorial Mini-Course Worth It?
After going through the UXPin Merge Tutorial mini-course, it’s clear that UXPin Merge is a powerful tool for bridging the gap between design and development. The tutorial is well-structured, informative, and provides hands-on experience that can significantly benefit any React developer looking to streamline their workflows.
Key Takeaways
Streamlined Workflow – The course shows how to integrate design and development effortlessly, reducing the friction typically involved in the handoff process.
Hands-On Learning – Practical examples and hands-on exercises make the learning experience highly engaging and effective.
Real-World Application – The skills you gain from this course are immediately applicable to real-world projects, enhancing both your productivity and collaboration capabilities.
Troubleshooting Help – The course’s in-depth coverage of common issues and troubleshooting tips ensures that you’re well-prepared to tackle any challenges that come your way.
If you’re a developer looking to make your design and development processes more seamless, the UXPin Merge Tutorial mini-course on YouTube is not just an introduction to a new tool; it’s a comprehensive guide that will reshape how you think about design and development collaboration.
Dive into the mini-course, experience the integration of design and development for yourself, and elevate your workflow to new heights. Try UXPin Merge for free.
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