Spotify video controls have changed the way users experience music streaming. Over the last few years, Spotify has quietly drifted from a pure audio player into something closer to a visual feed. Looping track canvases, video podcasts, and autoplaying clips turned what used to be a background app into yet another screen fighting for your attention.

Now Spotify is rolling out new in-app video controls that let you disable all videos across the app and go back to an audio-first experience. For many listeners, this looks like a small settings tweak. In reality, it is a clear signal of where modern apps are heading: back toward user control, attention management, and optional visuals instead of forced engagement.

In this article, we will break down what exactly changed with Spotify’s new video controls, how to turn off videos step-by-step on your devices, the real benefits in attention, battery life, and data usage, and how this move fits into a bigger shift in UX and product design.

What Did Spotify Actually Change?

Spotify has introduced new controls that let users disable in-app videos globally, not just in one part of the app. Instead of scattered toggles, there is now a coherent way to say: no video, just audio.

These controls affect three main things:

• Looping Canvas videos on tracks – those short visual loops behind your album art can now be globally suppressed.
• Video podcasts – episodes that previously defaulted to video can be forced into audio-only playback.
• Video elements in feeds and discovery sections – certain videos and clips that used to autoplay or animate are now governed by this setting.

The feature is rolling out gradually, so some users see it sooner than others, and it may require updating your Spotify app to the latest version. Spotify now gives you a single, high-leverage control over how visual or audio-centric your experience is.

For a long time, the default was more visuals, more motion, more engagement. The new controls finally acknowledge that not everyone wants their music player to behave like a social media feed.

Why Did Spotify Add Spotify Video Controls?

Spotify did not wake up one morning and decide to become minimalist. This change is a response to years of user friction. Three big pressures likely pushed them here:

1. User Complaints About Distraction

Power users, especially people who listen while working, studying, or commuting, have been vocal about Canvas and video elements being pointless distractions. They want playlists, not pseudo-TikTok.

2. Data and Battery Concerns

Streaming video burns more mobile data and drains battery faster than audio-only playback. As Spotify pushed more video content including podcasts, previews, and short clips, the cost of using the app increased for anyone on limited plans or older devices.

3. Competitive Pressure and UX Expectations

Users are starting to expect granular control over attention-draining features in all their apps, not just social media. Giving people a no video option keeps Spotify competitive against simpler, audio-first alternatives.

The takeaway is this: user experience is no longer just about adding features. It is about giving people ways to turn them off. This is where serious product thinking is headed.

How to Turn Off Spotify Videos: Step-by-Step Guide

The exact interface can vary by platform and app version, but the flow generally involves going into Settings, finding the Playback or Video section, and toggling off video-related options. Here is how it works across all major platforms.

On Android

1. Open the Spotify app on your Android device.
2. Tap your profile icon in the top right corner.
3. Go to Settings (gear icon).
4. Scroll to the Playback section.
5. Look for toggles labeled Canvas, Show videos, or Video podcasts.
6. Turn off all video-related toggles.
7. Restart playback for changes to take full effect.

On iOS (iPhone and iPad)

1. Open Spotify on your iPhone or iPad.
2. Tap your profile picture or gear icon to access Settings.
3. Navigate to the Playback or Data Saver section.
4. Disable options related to Canvas and video playback.
5. Play a track or podcast to verify you now see static artwork instead of video.

On Desktop (Windows and macOS)

1. Open the Spotify desktop app.
2. Click your profile name in the top right corner.
3. Select Settings.
4. Scroll down to the Playback or Display section.
5. Turn off any toggles related to Canvas or video visuals.

Note that Spotify may update menu labels over time. Always check your local app version and adapt the exact menu names accordingly.

What Changes When You Disable Videos?

Once you have turned video off, Spotify behaves more like the lean, audio-only app it used to be:

• Tracks play with static artwork instead of looping animations.
• Video podcasts play as audio, usually with a still image or basic episode art.
• Feed elements feel less busy, with fewer moving previews drawing your eyes away.

From a UX perspective, the app shifts from look at me to leave me playing in the background. That difference matters enormously if you use music to support your work instead of interrupt it. You lose some visual wow factor, but you gain a predictable, low-friction listening experience.

The Real Benefits: Focus, Battery, Data, and Mental Bandwidth

Better Focus and Less Context-Switching

Every time a screen moves, your brain pays an attention tax. Looping visuals, animated feeds, and video podcasts nudge you to look at your phone instead of staying in your current task. When you disable video in Spotify, you are less likely to pick up your phone just because something moved. Spotify becomes a background tool again, not a source of micro-distractions. That makes it more compatible with deep work, studying, coding, reading, or any task requiring sustained focus.

Lower Data Usage on Mobile

Video streams are simply heavier than audio streams. If you are on a limited plan or often away from Wi-Fi, those video podcasts and visual loops are quietly eating into your monthly data budget. By forcing Spotify into audio-only mode, you reduce the chance of background video usage on mobile networks and make your data consumption far more predictable. For some users in regions with expensive or capped mobile data, this is not just a quality-of-life improvement. It is the difference between staying under or blowing past a data cap.

Improved Battery Life on Phones and Laptops

Rendering video and constantly animating visuals costs battery. Turning that off removes work from the CPU and GPU and encourages you to leave the screen off while listening. The result is longer listening sessions on a single charge and less dependency on power banks if you use Spotify all day. It is not magic. It is the compound effect of your music app acting like a music app instead of a low-effort video platform.

Less Visual Clutter and a Calmer UI

For users who prefer a clean, minimal interface, audio-only Spotify simply feels calmer. There is less motion demanding attention, fewer animated elements competing for your eyes, and a more intentional listening environment. The app becomes a tool, not a distraction engine.

Who Should Keep Spotify Videos Enabled?

Not everyone should disable video. There are real use cases where keeping it on makes sense:

• Fans of video podcasts who watch episodes like mini TV shows and want the full visual experience.
• People using Spotify socially at parties, gatherings, or shared screens where visuals add to the atmosphere.
• Creators and marketers who track engagement on visual assets and want to experience what their audience sees.
• Casual listeners who enjoy the visual flair of Canvas animations and find them enjoyable rather than distracting.

The key point is choice. Spotify finally recognizes different listening modes. The problem was never that video existed. The problem was that it was forced by default and hard to fully disable.

Spotify vs. Other Music Apps: How They Handle Video

It is worth briefly comparing how Spotify’s new approach stacks up against competitors:

• Apple Music includes music videos but keeps them separate from the main listening experience. You actively choose to open a video rather than having it forced on you during audio playback.
• YouTube Music is video-centric by nature since it is built on YouTube’s infrastructure. Disabling video there means using it more like standard audio, but the core design is still video-first.
• Tidal and Amazon Music focus primarily on audio quality and do not aggressively push video visuals into the listening experience.

Spotify sits in an interesting middle ground. It started audio-first, gradually became more visual, and is now offering a retreat back to audio-first as an opt-in choice. That cycle is telling.

How This Fits a Bigger UX and Product Design Trend

From a product and innovation standpoint, this feature lines up with a broader pattern happening across the tech industry right now:

1. Apps go all-in on engagement and visuals to drive metrics.
2. Over time, user fatigue and backlash build up.
3. The most serious, future-minded products start adding controls to reduce the very behavior they once encouraged.

We are seeing this across tech. Screen time and focus modes on phones. Do not disturb and notification summaries. Autoplay controls on streaming platforms. Reader modes in browsers. Simplified feed options on social networks.

Spotify’s video controls are another small but meaningful example of this maturity. Innovation does not always mean adding more. Sometimes it means building better off switches. The companies that understand this are the ones building products people will keep using for years instead of burning out on.

How to Decide Your Own Spotify Settings

Here is a practical decision framework to help you decide:

• If you mostly listen while working, studying, or commuting and you barely look at your screen: turn all video off. You lose nothing important and gain focus and battery.
• If you often watch podcasts, share your screen, or treat Spotify like a light entertainment app: keep video on, but consider disabling it specifically on mobile data or on your phone.
• If you are somewhere in between: try the experiment. Turn video off everywhere for one week. Pay attention to whether you reach for your phone less, whether your battery lasts longer, and whether you actually miss any visuals. Most people who try audio-only mode do not go back.

Conclusion: A Small Feature With Bigger Implications

On the surface, Spotify’s new video controls are just one more toggle in a crowded settings menu. Look closer and they reveal something more important.

Big consumer apps are being forced to acknowledge that attention is finite. Users are no longer impressed by constant motion and forced engagement. They want control, calm, and products that respect the way they actually work and live. Innovation now includes designing ways to say no to the very features that once drove growth.

For anyone serious about using technology intentionally rather than reactively, Spotify’s new audio-first controls are a small but concrete tool. Try disabling all in-app videos for a week. You might be surprised at how much calmer and more productive your listening environment becomes.

And for anyone building products or thinking about UX, take note: the best feature you can add in 2025 might be a well-designed off switch.

If you’re interested in the latest technology trends impacting apps like Spotify, check out our guide on top emerging technologies to watch in 2026. For more detailed information on Spotify’s features, visit Spotify’s official support page

Setup

In today’s fast-paced digital workspace, efficiency is everything. Whether you’re a developer juggling multiple code windows, a designer switching between creative applications, or a professional managing countless spreadsheets and communication tools, screen real estate matters. A dual monitor setup is one of the single most effective upgrades you can make to transform your workflow. Studies have consistently shown that using two monitors can increase productivity by 20-30% compared to a single display, primarily by reducing the time spent alt-tabbing between applications and minimizing cognitive load. With more visual space, you can keep reference materials visible while working, monitor real-time data dashboards, or simply enjoy a less cluttered digital environment.

Benefits of Dual Monitors

The advantages of a dual monitor setup extend far beyond just having more pixels on your desk. The most immediate benefit is the reduction in context switching. When you have email open on one screen and your main work application on the other, you eliminate the constant need to minimize and maximize windows. This seemingly small change has a profound impact on focus and mental clarity, as your brain doesn’t need to constantly re-orient itself to new visual contexts. For creative professionals, dual monitors allow for a streamlined workflow where you can have your design canvas on the primary display and tool palettes, reference images, or client feedback on the secondary screen.

Beyond productivity, dual monitors also improve multitasking quality. Rather than cramming multiple windows into a single screen with tiling or split-screen modes (which inevitably makes each window too small), you can dedicate an entire monitor to each task. This is especially valuable for data analysis, where you might need a full spreadsheet visible alongside visualization software, or for developers who benefit from having documentation on one screen while writing code on the other. Additionally, dual monitors can reduce physical strain; instead of constantly scrolling or switching tabs, you can arrange your workspace so that frequently referenced materials are always visible at a natural viewing angle.

Hardware Requirements

Before setting up your dual monitors, it’s essential to ensure your hardware can support the configuration. The first thing to check is your computer’s available video outputs. Most modern laptops and desktops come with at least one HDMI port, and many also include DisplayPort, USB-C (with video support), or even legacy VGA/DVI connections. For a dual monitor setup, you’ll need at least two video output ports, or alternatively, a single port that supports daisy-chaining (common with DisplayPort) or a USB-to-HDMI adapter if necessary.

Your graphics card (GPU) is the next consideration. Integrated graphics on modern Intel or AMD processors can typically handle two 1080p monitors without issue, but if you’re working with higher resolutions like 1440p or 4K, or if you’re running graphics-intensive applications, a dedicated GPU is highly recommended. Check your GPU’s specifications to ensure it supports the number of displays and the resolution you want. As for the monitors themselves, try to match their size and resolution for the most seamless experience. Two 24″ or 27″ 1080p or 1440p displays are popular choices that balance screen space with affordability and performance.

Don’t forget about cables and mounting. You’ll need the appropriate video cables (HDMI, DisplayPort, etc.) to connect both monitors, and you may want to invest in a dual monitor stand or desk mount to save desk space and create a cleaner setup. Adjustable mounts are particularly useful as they let you fine-tune the height, tilt, and rotation of each monitor for optimal ergonomics.

Step-by-Step Setup Guide

Setting up your dual monitors is straightforward, but the process differs slightly between Windows and macOS. Here’s how to get your dual monitor setup running on both platforms.

Windows 10/11 Setup

• Connect your monitors: Plug both monitors into your computer using the appropriate cables (HDMI, DisplayPort, etc.). Power them on.
• Access Display Settings: Right-click on your desktop and select “Display settings” from the context menu.
• Detect displays: Windows should automatically detect both monitors. If not, scroll down and click “Detect” under the “Multiple displays” section.
• Arrange your displays: You’ll see numbered boxes representing your monitors. Drag them to match their physical arrangement on your desk (e.g., if your second monitor is to the left, drag its box to the left of monitor 1).
• Choose your display mode: Scroll to “Multiple displays” and select your preferred mode: “Extend these displays” (recommended for productivity), “Duplicate these displays” (mirrors the same content on both), or “Show only on 1/2” (uses only one monitor).
• Set your primary monitor: Click on the monitor you want as your primary display, scroll down, and check “Make this my main display.”
• Adjust resolution and scaling: For each monitor, select it and set the appropriate resolution (usually the highest available) and scaling percentage (100%, 125%, 150%) based on your preference.

macOS Setup

• Connect your monitors: Plug both monitors into your Mac using the appropriate cables or adapters.
• Open System Preferences: Click the Apple logo in the top-left corner and select “System Preferences” (or “System Settings” on macOS Ventura and later).
• Go to Displays: Click on “Displays.” macOS should automatically detect your external monitors.
• Arrange displays: Click on the “Arrangement” tab. You’ll see boxes representing your displays. Drag them to match their physical positions.
• Set primary display: Drag the white menu bar from one display box to another to set which monitor is your primary (this is where your Dock and menu bar will appear).
• Mirror or extend: Uncheck “Mirror Displays” to extend your desktop across both monitors. If checked, both will show the same content.
• Adjust resolution: In the “Display” tab for each monitor, select the “Scaled” option and choose your preferred resolution.

Best Monitor Layouts

How you physically arrange your dual monitors significantly impacts ergonomics and workflow efficiency. The most common layout is the side-by-side horizontal setup, where both monitors are placed next to each other at the same height. This works well for most users and allows for seamless mouse movement between screens. To optimize this layout, try to minimize the bezel gap between the two monitors and ensure both are at eye level to avoid neck strain. Many users prefer to have their primary monitor directly in front of them and the secondary monitor angled slightly inward to reduce the need to turn their head.

Another effective layout is the main + vertical configuration, where your primary monitor is in landscape orientation and a secondary monitor is rotated 90 degrees to portrait mode. This setup is particularly popular among developers, writers, and anyone who works with long documents or code files, as the vertical monitor lets you see significantly more lines of text at once. The portrait-oriented screen is also excellent for monitoring social media feeds, long emails, or chat applications.

For those with limited desk space or who prefer a more immersive setup, a stacked vertical arrangement can work well, where one monitor is placed above the other. This requires a sturdy monitor arm and may involve more neck movement, but it can be useful for specific workflows like video editing (timeline on bottom, preview on top) or stock trading (charts on one screen, order entry on another).

Productivity Tips for Dual Monitor Setup

To truly maximize your dual monitor setup, it’s important to develop habits and use tools that leverage the extra screen space effectively. One of the best practices is to designate specific functions to each monitor. For example, use your primary monitor for active work (writing, coding, designing) and your secondary monitor for passive or reference tasks (email, chat, documentation, dashboards). This mental separation helps maintain focus on your main task while keeping important information within easy glance.

Window management tools can greatly enhance your dual monitor experience. On Windows, PowerToys includes a “FancyZones” feature that lets you create custom snap layouts across both screens. On macOS, apps like Magnet or Rectangle provide similar functionality, allowing you to quickly snap windows to predefined zones with keyboard shortcuts. These tools eliminate the tedious manual resizing of windows and ensure a consistent, organized workspace.

Keyboard shortcuts are another productivity multiplier. Learn the shortcuts to move windows between monitors (Windows + Shift + Left/Right Arrow on Windows; varies by app on macOS) and to maximize/minimize windows quickly. Additionally, consider using virtual desktops (Windows 10/11’s Task View or macOS’s Spaces/Mission Control) in combination with your dual monitors to create even more workspace configurations without physical clutter.

Troubleshooting Common Issues

Even with a proper setup, you may encounter some common issues. If one or both monitors are not detected, first check all physical connections and ensure the monitors are powered on. Try using a different cable or port, and restart your computer. On Windows, manually click “Detect” in Display Settings. On macOS, hold Option while clicking “Detect Displays” in System Preferences. If issues persist, update your graphics drivers from your GPU manufacturer’s website.

For resolution or scaling problems, where text appears too small or blurry, ensure each monitor is set to its native resolution. If you’re using different resolution monitors, you may need to adjust scaling individually for each display. On Windows, this is done per-monitor in Display Settings. On macOS, each display has its own resolution settings. If you experience flickering or artifacts, try a different cable (especially if using older VGA or DVI), check for driver updates, or reduce the refresh rate slightly in display settings. Finally, if your mouse cursor gets stuck or behaves erratically at screen edges, double-check your display arrangement in settings to ensure the virtual layout matches the physical layout of your monitors.

Conclusion

A well-configured dual monitor setup is a game-changer for anyone serious about productivity. By following this guide, you’ve learned not only how to connect and configure two displays on both Windows and macOS, but also how to optimize your physical layout, develop efficient workflows, and troubleshoot common issues. The investment in a second monitor pays dividends daily through reduced frustration, improved multitasking, and a more organized digital workspace. Whether you’re coding, designing, trading, writing, or managing projects, the extra screen real estate will quickly become indispensable. Set up your dual monitors today and experience the productivity boost that millions of professionals rely on every day.

The rise of artificial intelligence has been dominated by massive cloud-based platforms like ChatGPT and Claude. However, a significant trend is emerging that shifts power back to the user: the local AI model. As open-source communities and hardware manufacturers push the boundaries of what’s possible, more individuals and businesses are choosing to run sophisticated AI directly on their own hardware. This shift is driven by a desire for greater control, enhanced security, and the ability to operate without a constant internet connection. In 2025, the ability to host your own AI isn’t just a niche hobby for tech enthusiasts; it’s becoming a practical reality for anyone who values digital sovereignty.

What is a Local AI Model?

A local AI model is an artificial intelligence system—typically a Large Language Model (LLM) or image generator—that resides and executes entirely on a user’s local machine, such as a desktop PC, laptop, or private server. Unlike cloud AI, where your prompts are sent to a remote data center for processing, a local model utilizes your device’s own CPU, GPU, and RAM to generate responses. This means the \”brain\” of the AI lives on your hard drive, and all computations happen within your physical possession.

The concept relies on the availability of open-source weights—the numerical parameters that define how an AI model understands and generates information. When a company like Meta or Mistral releases their model weights to the public, developers can create tools that allow these models to run on consumer-grade hardware. While cloud-based AI often has access to thousands of interconnected GPUs, local AI models are optimized to be efficient enough to provide high-quality results on a single high-end machine. This democratization of AI technology ensures that sophisticated intelligence is no longer locked behind the walls of a few tech giants.

How Local AI Models Work

Running an AI model locally involves three main components: the model architecture, the model weights, and an inference engine. The architecture is the blueprint of the neural network, while the weights are the \”learned\” knowledge gained during the model’s training phase. The inference engine is the software that takes your input, processes it through the neural network using the weights, and produces an output.

To make models run efficiently on home hardware, developers often use a technique called quantization. Large models are incredibly memory-intensive; for example, a model with 70 billion parameters might require over 140GB of VRAM in its original format. Quantization reduces the precision of the model’s weights (e.g., from 16-bit to 4-bit), which drastically lowers the memory requirement with minimal loss in intelligence. This allows a powerful AI to fit into the 8GB or 16GB of VRAM found on modern consumer graphics cards. When you type a prompt into a local AI interface, the inference engine loads these quantized weights into your GPU memory and performs the billions of mathematical operations required to predict the next word in a sequence, all in real-time.

Benefits of Running AI Locally

Choosing to run a local AI model offers several compelling advantages over relying on cloud-based services. For many, the primary motivation is privacy, but the benefits extend into reliability and long-term cost efficiency.

Enhanced Privacy and Security

When you use cloud AI, every prompt you write is sent to a third-party server. This data can be stored, analyzed, and potentially used to further train future models. For professionals handling sensitive client data, legal documents, or proprietary code, this poses a significant risk. With a local AI model, your data never leaves your machine. There is no risk of a data breach at a remote data center exposing your private conversations, and you have complete certainty that your information isn’t being used for purposes you didn’t authorize.

Offline AI Capabilities

Cloud AI is entirely dependent on an internet connection. If your ISP has an outage or you’re traveling in an area with poor connectivity, your AI tools become useless. A local AI model works perfectly offline. This is invaluable for researchers working in remote locations, travelers, or anyone who wants their tools to be available 24/7, regardless of network status. Your productivity is no longer tied to a stable Wi-Fi signal.

Long-Term Cost Savings

While high-end cloud AI often requires a monthly subscription (typically $20/month or more for individual users), a local AI model is essentially free after the initial hardware investment. There are no per-token fees, no usage limits, and no recurring billing. For power users who generate large volumes of text or code, the cost of a dedicated GPU can be recouped in a matter of months through cost savings on cloud subscriptions.

Popular Local AI Models

The open-source AI community is incredibly active, with new and improved models being released almost weekly. Here are some of the most prominent examples currently leading the local AI revolution.

Llama (by Meta)

Meta’s Llama series is arguably the most influential family of open-source models. Meta has released several versions (Llama 2, Llama 3), each offering different sizes like 8B (8 billion parameters) and 70B. The smaller 8B models are incredibly popular for local use because they are fast and highly intelligent, fitting easily into most modern gaming PCs. Llama serves as the foundation for thousands of fine-tuned models tailored for specific tasks like creative writing or roleplay.

Mistral and Mixtral

France-based Mistral AI shocked the industry with models that punched far above their weight class. Their Mistral 7B model became the gold standard for efficiency, while their Mixtral 8x7B (a \”mixture of experts\” model) provides near-GPT-4 levels of performance while remaining small enough to run on high-end enthusiast hardware. Mistral models are known for their speed and excellent reasoning capabilities.

DeepSeek

DeepSeek has gained significant traction for its exceptional performance in coding and mathematical reasoning. Their DeepSeek-Coder models are among the best local options for software developers, rivaling expensive cloud-based assistants. They offer a range of sizes, ensuring that developers can find a version that fits their specific hardware constraints while maintaining high accuracy in technical tasks.

Hardware Requirements

To run a local AI model effectively, your hardware needs to meet certain criteria, with memory and GPU performance being the most critical factors.

• GPU (Graphics Card): This is the most important component. NVIDIA cards are currently the preferred choice due to their CUDA cores, which most AI software is optimized for. The amount of Video RAM (VRAM) is vital; 8GB is the bare minimum for small models, while 12GB or 16GB is recommended for a smooth experience with better models.
• RAM (System Memory): While the GPU handles the heavy lifting, having at least 16GB (ideally 32GB) of system RAM is important for overall stability, especially if you’re running larger models that might partially offload to system memory.
• CPU: A modern multi-core processor (Intel i7/i9 or AMD Ryzen 7/9) is necessary to manage data flow and handle some of the background processing tasks.
• Storage: High-speed NVMe SSDs are highly recommended. AI model files can be anywhere from 5GB to 50GB+, and slow storage will lead to long loading times.

Local AI vs Cloud AI

Both local and cloud-based AI have their place in a modern workflow. Cloud AI offers sheer scale and accessibility, while local AI provides control and privacy. Understanding the trade-offs is key to choosing the right solution for your needs.

Feature	Local AI Model	Cloud AI (ChatGPT/Claude)
Privacy	Complete (Data stays local)	Partial (Sent to 3rd party)
Internet Required	No (Works offline)	Yes (Always)
Cost	One-time hardware investment	Recurring monthly subscription
Speed	Depends on your hardware	Generally very fast
Intelligence	Highly capable, but capped by hardware	Massive models (GPT-4/Claude 3 Opus)
Setup Difficulty	Medium (Requires software installation)	Low (Web-based)

Use Cases for Local AI

Local AI models are being utilized in diverse ways across different industries. Developers use DeepSeek or Llama-based coding models to generate and debug code without exposing proprietary intellectual property to the cloud. Content creators use local models to brainstorm ideas, draft scripts, and summarize research while ensuring their creative process remains private. Additionally, researchers and students use local AI as powerful study aids that can be customized and fine-tuned on specific datasets for specialized learning. The ability to integrate these models into personal automation scripts also opens up a world of possibilities for home and office efficiency.

Conclusion

The movement toward the local AI model represents a significant milestone in the evolution of artificial intelligence. By bringing powerful intelligence directly to our own hardware, we regain control over our data, ensure privacy, and create tools that work for us on our own terms. Whether you’re a developer looking for a secure coding assistant or a privacy-conscious individual wanting to explore the frontiers of AI, running models locally is a rewarding and practical path. As hardware continues to improve and models become even more efficient, the line between local and cloud intelligence will continue to blur, making private, high-performance AI accessible to everyone. The future of AI is local, and it’s happening right now on desks just like yours.

Entering the world of digital art is an exciting journey, but the first hurdle most artists face is choosing the best drawing tablet for beginners. For someone used to pencil and paper, the transition to a digital canvas can feel overwhelming without the right hardware. The right tablet doesn’t just provide a surface to draw on; it acts as a bridge between your physical movements and the digital world, allowing for a level of precision and control that a mouse simply cannot match. A well-chosen beginner digital art tablet helps reduce the learning curve, making it easier to master software like Photoshop, Procreate, or Clip Studio Paint while protecting you from frustration during those critical early stages of development.

In 2025, the market is filled with incredible options that balance performance with affordability. Whether you want to see your lines appear directly under your pen or prefer a portable standalone device, there is a perfect starting point for everyone. By investing in a tablet that matches your current skill level and future goals, you set yourself up for long-term success, allowing your creativity to flourish without technical barriers holding you back.

What is a Drawing Tablet?

A drawing tablet, also known as a graphics tablet or digitizer, is a specialized input device designed for artists and designers. Unlike a standard tablet like an iPad (though some iPads can serve this role), a dedicated drawing tablet is engineered specifically for stroke precision and pressure sensitivity. It uses a stylus—a digital pen—that communicates with the tablet surface to translate your hand movements into digital coordinates on your computer screen. This allows for natural-feeling strokes, varying line weights, and the ability to \”paint\” with digital brushes in a way that mimics traditional media like oils, charcoal, or ink.

These digital drawing tools are essential for modern creative workflows because they offer \”absolute positioning.\” This means that every point on the tablet surface corresponds exactly to a point on your screen. When you tap the top-right corner of your tablet, your cursor jumps immediately to the top-right of your monitor. This intuitive connection is what makes drawing tablets so much more powerful than a mouse for artistic work, providing the fine motor control needed for detailed character design, photo retouching, and complex digital illustrations.

Types of Drawing Tablets

Before you make a purchase, it’s important to understand the three main categories of tablets available for beginners.

Pen Tablets (Screenless)

Pen tablets are the most common entry point for hobbyists. They consist of a flat, sensitive pad that you connect to your computer via USB or Bluetooth. You draw on the pad while looking at your computer monitor. While this takes a few days to get used to (eye-hand coordination), these tablets are incredibly durable, affordable, and often have the best ergonomics because you don’t have to hunch over a small screen. They are the best drawing tablet for beginners on a budget.

Display Tablets (Pen Displays)

Display tablets feature a built-in monitor, allowing you to draw directly onto the screen. This feels the most like traditional drawing and is often preferred by those who find screenless tablets difficult to master. However, they must still be connected to a computer to function, acting as a second monitor. They are generally more expensive than pen tablets but offer a much more immersive experience for detailed work.

Standalone Tablets

Standalone tablets are fully functional computers with built-in drawing capabilities. The iPad Pro and Microsoft Surface Pro are the most famous examples. You don’t need to connect them to another PC; you just turn them on and start drawing anywhere. These offer the ultimate in portability but are usually the most expensive option. For a beginner drawing tablet, these are great if you also need a device for school, work, or general media consumption.

Best Drawing Tablets for Beginners in 2025

Here are six top-rated options that provide the best value and performance for new artists.

1. Wacom Intuos Small

Wacom is the industry standard, and the Intuos Small is their classic entry-level device. It is a screenless pen tablet that is built to last and comes with excellent bundled software.

• Pros: Extremely reliable, battery-free pen, compact.
• Cons: No screen, small drawing area.

2. Huion Kamvas 13 (2025 Edition)

If you want a screen without breaking the bank, the Kamvas 13 is an affordable drawing tablet that offers a beautiful 1080p display and a very responsive pen.

• Pros: Vibrant screen, laminated glass (less gap), customizable buttons.
• Cons: Requires multiple cables, stand usually sold separately.

3. XP-Pen Artist 12 (Gen 2)

Another fantastic display option, the XP-Pen Artist 12 is known for its X3 smart chip technology, which provides a more stable and accurate pen experience.

• Pros: Great pen accuracy, sleek design, very affordable.
• Cons: Screen brightness is slightly lower than competitors.

4. iPad Air (M2) with Apple Pencil Pro

The best standalone tablet for most beginners. With Procreate, the iPad Air offers a near-flawless drawing experience that is portable and intuitive.

• Pros: Portable, amazing software (Procreate), great for other tasks.
• Cons: High price, pencil sold separately.

5. Huion Inspiroy H640P

The ultimate affordable drawing tablet. For under $50, you get a solid, screenless device that is perfect for students and young hobbyists.

• Pros: Incredible value, thin and light, works with Android.
• Cons: Build quality is less premium, pen feel is slightly \”clicky.\”

6. Gaomon PD1161

A compact 11.6-inch display tablet that is perfect for small desks. It offers a surprising amount of quality for its low price point.

• Pros: Very portable for a display tablet, good color accuracy.
• Cons: Smaller screen can feel cramped for large illustrations.

Features Beginners Should Look For

When comparing different models, focus on these three technical aspects to ensure a smooth drawing experience.

Pressure Sensitivity

Pressure sensitivity determines how much your line width or opacity changes based on how hard you press. Most modern tablets offer 8,192 levels of pressure. For a beginner, anything above 4,096 is perfectly fine. The goal is a tablet that can detect subtle changes, allowing you to shade and taper lines naturally, just like a real pencil.

Pen Accuracy and Tilt Support

Pen accuracy is about how closely the digital cursor follows your actual pen tip. Lower-quality tablets might have \”jitter\” (wobbly lines) or \”parallax\” (the cursor being slightly away from the pen tip). Tilt support is another key feature—it allows you to angle the pen to create broad strokes, which is essential for digital painting and realistic shading.

Compatibility

Always check that the tablet is compatible with your operating system (Windows, Mac, or Android). Some tablets now even work with Chromebooks, which is great for students. Additionally, ensure your computer has the right ports (HDMI, USB-C, or USB-A) or that you have the necessary adapters to connect the device.

Setup Guide: How to Get Started

Setting up your new tablet is usually a straightforward process, but following these steps will prevent common driver issues.

1. Download Drivers: Go to the manufacturer’s website (Wacom, Huion, etc.) and download the latest drivers for your specific model. Avoid using the ones on a CD if provided, as they are likely outdated.
2. Install Before Connecting: It is often best to install the driver software before you plug the tablet into your computer for the first time.
3. Calibrate: Once connected, open the tablet settings and perform a \”pen calibration.\” This ensures the cursor aligns perfectly with your pen tip.
4. Set Shortcuts: Map the physical buttons on your tablet and pen to common actions like \”Undo\” (Ctrl+Z) or \”Zoom In/Out\” to speed up your workflow.

FAQs

1. Can I use a drawing tablet with a laptop?

Yes, almost all drawing tablets are designed to work perfectly with laptops, provided you have the correct ports or adapters.

2. Do I need an expensive tablet to be a good artist?

Absolutely not. Skill comes from practice. An expensive tablet makes the process more comfortable, but some of the world’s best digital art is created on entry-level hardware.

3. What is parallax in display tablets?

Parallax is the visual gap between the pen tip and the cursor on the screen, caused by the thickness of the glass. Modern \”laminated\” screens minimize this gap.

4. Can I draw on a tablet without a computer?

Only if it is a \”standalone\” tablet like an iPad or Samsung Galaxy Tab. Pen tablets and display tablets must be connected to a PC or laptop.

5. Is Wacom better than Huion or XP-Pen?

Wacom has better driver stability and pen feel, but Huion and XP-Pen offer significantly more value (larger screens for much less money).

Conclusion

Finding the best drawing tablet for beginners is the first step toward a rewarding creative hobby or career. By choosing a device that fits your budget and workspace—whether it’s a reliable Wacom Intuos or a vibrant Huion Kamvas—you provide yourself with the tools needed to translate your imagination into digital art. Focus on core features like pressure sensitivity and pen accuracy, follow a proper setup guide, and remember that the most important part of the journey is consistent practice. Your digital canvas is waiting; pick up your stylus and start creating today!

For developers, the keyboard is not just another accessory; it is the primary tool that translates ideas into real, working code. Choosing the best coding keyboard can dramatically affect how fast you type, how many errors you make, and how comfortable you feel after long sessions in front of the screen. A well‑designed keyboard for programmers supports consistent key feel, clear feedback, and layout choices that keep your hands relaxed while you jump between editors, terminals, and browser tabs.

Modern developer workflows often involve working 6–10 hours a day at a desk, so ergonomics and build quality are essential for preventing strain in your fingers, wrists, and shoulders. A good developer keyboard helps maintain a steady typing rhythm, reduces the need to look down at the keys, and minimizes fatigue during deep work. Features like full‑size layouts with a number pad, compact 75% boards that free desk space, or split ergonomic designs can each support different coding styles. By investing in the best coding keyboard for your workflow, you set yourself up for better focus, higher coding productivity, and a more enjoyable daily experience.

What Makes a Keyboard Good for Coding

When you evaluate a keyboard for coding, ergonomics should be at the top of your checklist. An ergonomic keyboard is designed to reduce strain on your hands and wrists, whether through a split layout, tenting, or a gentle curve that matches natural hand position. This supports better posture and helps prevent repetitive strain injuries, especially when writing code for long stretches of time. Comfortable key spacing, low wobble, and a stable chassis all contribute to a controlled typing experience that makes it easier to maintain accuracy at speed.

Typing comfort also depends heavily on the underlying switch technology and key travel. Mechanical switches, scissor switches, and membrane domes each provide different levels of tactility and resistance, and programmers often prefer switches that give clear feedback without requiring too much force. A comfortable developer keyboard will feel predictable from key to key, so your fingers can develop muscle memory and move without conscious effort. Soft yet stable stabilizers on larger keys like Space, Enter, and Shift also help maintain consistency throughout the board.

Coding productivity is influenced by more than just comfort, though; layout and features matter as well. A good coding board offers easy access to function rows, arrow keys, and navigation clusters, making shortcuts in IDEs and terminals more fluid. Many programmers benefit from extra keys that can be mapped to macros, build commands, or window management shortcuts. Combined with clear legends and, ideally, some form of backlighting for late‑night debugging, these factors make a keyboard stand out as one of the best options for serious coding in 2025.

Key Features Developers Should Look For

Mechanical Switches

A mechanical keyboard for coding uses individual switches under each key, which gives more precise feedback and better durability than typical rubber‑dome designs. Popular switch families like Cherry MX and their equivalents come in linear, tactile, and clicky variants, each offering different feel and sound profiles. For coding, tactile or light linear switches often hit the sweet spot between feedback and speed, helping you feel each keypress without causing fatigue.

Programmable Keys

Programmable keys can significantly boost coding productivity. Being able to assign macros to build commands, common snippets, or complex shortcuts lets you streamline repetitive tasks across your developer keyboard setup. Many modern mechanical keyboards ship with companion software or firmware (such as VIA or QMK) that lets you remap keys, create multiple layers, and sync profiles across machines. For programmers who frequently switch between languages and tools, these programmable options are an efficient way to tailor the keyboard to your workflow.

Anti‑Ghosting and N‑Key Rollover

Anti‑ghosting and N‑key rollover ensure that multiple simultaneous keypresses are registered correctly, which is especially important if you type quickly or use chorded shortcuts in editors like VS Code or Vim. A keyboard with full N‑key rollover can detect every key pressed at once, preventing missed inputs when you hit Shift, Ctrl, Alt, and other modifiers together. Even for a quiet keyboard, reliable rollover is crucial for minimizing errors during intense coding sessions.

Backlighting and RGB

Backlighting is not only a cosmetic feature; for many programmers, it enhances usability in dim environments. A simple white backlight can be enough to keep legends readable late at night, while an RGB keyboard for programming lets you color‑code zones, such as highlighting function keys, navigation keys, or commonly used shortcuts. Some boards allow per‑key RGB customization, so you can create layouts that visually reinforce your coding habits, such as a specific color for debugging or testing shortcuts.

Wrist Support

Wrist support is another key factor that often gets overlooked. A detachable, padded wrist rest or a low‑profile chassis helps keep your wrists at a neutral angle, reducing pressure on tendons during long typing sessions. Many of the best mechanical keyboards for coding now include magnetic wrist rests that align seamlessly with the board, combining comfort with a clean desk setup. When you combine the right mechanical switches, robust programmability, anti‑ghosting, useful lighting, and solid wrist support, you get a best‑in‑class developer keyboard that is ready for 2025 and beyond.

Best Coding Keyboards in 2025

Below are some of the best coding keyboard options in 2025, selected for build quality, switch options, ergonomics, and developer‑friendly features.

1. Keychron Q3

The Keychron Q3 is a premium, compact TKL mechanical keyboard designed with programmers and power users in mind. It features a solid aluminum case, hot‑swappable sockets, and support for QMK/VIA, making it a strong candidate for the best mechanical keyboard for coding. With multiple switch choices and high‑quality keycaps, it offers excellent typing comfort and consistency.

• Pros: Robust aluminum build and excellent acoustics
• Hot‑swappable switches for easy customization
• Full QMK/VIA programmability for macros and layers

• Cons: Heavier than typical office keyboards
• Wired only on some versions, which may not suit minimal setups

Best use case: Developers who want a customizable, long‑term coding keyboard with strong build quality and full programmability.

2. Logitech MX Keys S

The Logitech MX Keys S is a slim, wireless keyboard for programmers who prefer a low‑profile typing experience and quiet operation. Although it is not mechanical, its scissor‑switch design offers precise, stable keypresses and excellent wireless connectivity for multi‑device workflows. It fits perfectly into a clean developer keyboard setup that spans laptops, desktops, and tablets.

• Pros: Multi‑device pairing and quick switching
• Quiet, low‑profile keys suitable for shared spaces
• White backlighting with smart auto‑brightness

• Cons: No hot‑swap or mechanical switch options
• Limited hardware‑level programmability compared to QMK boards

Best use case: Programmers who need a quiet keyboard and work across multiple devices or operating systems using Bluetooth or dongle‑based wireless connections.

3. Corsair K100 RGB

The Corsair K100 RGB is a high‑end, full‑size mechanical keyboard with advanced RGB and macro capabilities, often recommended for programming as well as gaming. It provides dedicated macro keys, per‑key RGB lighting, and powerful software for customization. Its linear switches and quality stabilizers make it a fast and responsive board for developers.

• Pros: Extensive macro support and powerful customization software
• Per‑key RGB and dedicated media controls
• Detachable wrist rest for added comfort

• Cons: Large footprint on the desk
• Heavier software dependency for advanced features

Best use case: Developers who also game or want one do‑it‑all board with rich RGB and macro features for complex workflows.

4. Kinesis Freestyle Pro / Advantage Series

Kinesis ergonomic keyboards like the Freestyle Pro and Advantage2 are built for maximum comfort, with split layouts and strong tenting options. These boards are popular among developers who have experienced wrist or shoulder strain, as they can position each half independently. They also include programmable layers and macros, making them serious productivity tools.

• Pros: Highly ergonomic split layout to reduce strain
• Programmable layers and onboard macros
• Compatible with multiple operating systems

• Cons: Learning curve due to non‑standard layout
• Higher price than many standard boards

Best use case: Full‑time developers who prioritize ergonomics and want a developer keyboard that protects long‑term health.

5. NuPhy Air75 V2

The NuPhy Air75 V2 is a slim mechanical keyboard that blends low‑profile design with mechanical switch feel, making it a strong candidate for portable developer setups. It supports multiple connection modes (USB‑C, 2.4 GHz wireless, Bluetooth) and offers hot‑swappable low‑profile switches. Its compact 75% layout provides function keys and arrows while saving desk space.

• Pros: Compact, stylish design suitable for on‑the‑go developers
• Multi‑device wireless connectivity
• Quiet mechanical switches with good tactility

• Cons: Low‑profile keycaps may not suit everyone’s preference
• Smaller right‑hand cluster requires brief adjustment

Best use case: Developers who move between office and home or travel, and want a quiet keyboard with mechanical feel and flexible connectivity.

6. Keychron Q1 Max / Q1 Pro

The Keychron Q1 Max/Q1 Pro is frequently recommended as a top all‑rounder mechanical keyboard for programmers in 2025. It combines a compact 75% layout, hot‑swappable switches, wireless options on some variants, and QMK/VIA support. With a gasket‑mounted design and premium keycaps, it delivers excellent typing comfort and acoustics.

• Pros: High‑end feel with customizable switches and keycaps
• QMK/VIA programmability for advanced macros and layers
• Available wireless models for flexible developer keyboard setups

• Cons: Higher price than entry‑level mechanical keyboards
• Some configurations may require firmware tweaks

Best use case: Programmers who want one best‑in‑class coding keyboard they can fine‑tune for feel, sound, and layout over time.

Mechanical vs Membrane Keyboard for Coding

Mechanical vs membrane keyboard debates are common in programming circles, and understanding the differences helps you choose the right tool for your workflow. Mechanical keyboards use individual mechanical switches under each key, giving consistent actuation force, distinct feedback, and long lifespan. Membrane keyboards, by contrast, rely on a rubber dome and a flexible membrane to register keypresses, which often results in a softer, “mushier” feel.

Mechanical boards typically offer superior feedback, durability, and customization, including different keyboard switch types like linear, tactile, and clicky variants. This makes them ideal for heavy coding, where accurate key recognition and comfortable feel are essential. Membrane keyboards are usually cheaper and quieter, which can be useful in shared offices or tight budgets, but they rarely match the precision and longevity of mechanical options for full‑time developers.

Feature	Mechanical Keyboard	Membrane Keyboard
Switch technology	Individual mechanical switches per key	Rubber dome over flexible membrane
Typing feedback	Precise tactile or audible response	Softer, often mushy feel
Durability	Very high; rated for tens of millions of presses	Lower; domes wear out faster over time
Customization	Wide choice of keyboard switch types and keycaps	Limited customization options
Noise level	Can be louder; quiet switches available	Generally quieter out of the box
Price range	Mid to high, depending on features	Typically more affordable
Best suited for coding	Heavy daily programming and long sessions	Casual or budget‑constrained coding setups

Buying Guide: How to Choose the Best Coding Keyboard

Switch Type

Switch type is one of the most important decisions when choosing the best coding keyboard. Linear switches provide smooth, consistent travel with no tactile bump, making them great for fast typists who prefer a silent glide. Tactile switches add a small bump at the actuation point, offering confirmation that a key has registered, which many programmers appreciate. Clicky switches combine tactility with an audible click, but they can be too loud for shared environments. If you’re unsure, starting with light tactile switches is often a safe choice for a mechanical keyboard for coding.

Ergonomics

Ergonomics is critical for long‑term comfort and avoiding strain. Look for keyboards with gentle typing angles, optional wrist rests, and layouts that let your shoulders stay relaxed. Ergonomic and split keyboards, like those from Kinesis, can help if you’ve had pain from traditional boards, though they require an adaptation period. Even if you choose a standard layout, consider adding a separate wrist rest or adjusting your chair and desk height so that your wrists stay straight while typing.

Key Travel and Feel

Key travel refers to how far a key moves when pressed. Many mechanical keyboards have medium travel that balances speed and comfort, while laptop‑style boards often have shorter travel. Developers who type for many hours typically benefit from moderate travel with a clear actuation point, which reduces bottoming‑out force and fatigue. Try to choose a keyboard whose feel you can test in person, or pick a model with widely reviewed switches so you know what to expect before buying.

Build Quality

Build quality affects both longevity and typing experience. Keyboards with metal top plates or full aluminum cases feel more rigid and stable, reducing flex and rattling. Double‑shot or high‑quality PBT keycaps resist shine and keep legends clear over time, which is important when you rely on your developer keyboard every day. Good stabilizers on larger keys, solid feet, and reliable connectivity (wired or wireless) round out a durable keyboard that will serve you through years of coding and refactoring.

FAQs

1. What keyboard do programmers use?

Programmers commonly use mechanical keyboards from brands like Keychron, Logitech, Corsair, Kinesis, and NuPhy, as these offer strong build quality, good switch options, and deep programmability for coding workflows.

2. Are mechanical keyboards better for coding?

Yes, mechanical keyboards are generally better for coding because they provide more precise feedback, higher durability, and customizable keyboard switch types, which all help reduce fatigue and improve typing accuracy over long sessions.

3. Is a quiet keyboard good for programming?

A quiet keyboard can be excellent for programming, especially in shared offices or home environments where noise is a concern, and many modern mechanical boards now offer quiet linear or dampened tactile switches.

4. Do I need RGB lighting on a coding keyboard?

You don’t need RGB lighting, but it can be useful for highlighting specific key clusters or working in low light; many of the best coding keyboards include either simple white backlighting or full RGB options.

5. Is a compact keyboard good for developers?

Compact layouts like 75% or TKL are popular with developers because they save desk space and bring the mouse closer, reducing shoulder strain, while still keeping essential keys like arrows and function rows accessible.

Conclusion

Choosing the best coding keyboard in 2025 comes down to finding the right balance between comfort, performance, and features that match your daily workflow. Mechanical options with tactile or light linear switches, solid build quality, and thoughtful ergonomy tend to deliver the best long‑term experience for serious programmers. For some, a quiet wireless board like the Logitech MX Keys S will be ideal, while others may prefer a customizable mechanical keyboard for coding such as the Keychron Q3 or Q1 Max, or an ergonomic Kinesis split design. By prioritizing switch type, ergonomics, key travel, and build quality, you can invest in a keyboard for programmers that supports higher coding productivity and keeps your hands comfortable through every commit.