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Wallpaper (computing)
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A wallpaper or background (also known as a desktop background, desktop picture or desktop image on computers) is a digital image (photo, drawing etc.) used as a decorative background of a graphical user interface on the screen of a computer, smartphone or other electronic device. On a computer, wallpapers are generally used on the desktop, while on a mobile phone they serve as the background for the home screen. Though most devices include a default background image, modern devices usually allow users to manually change the background image.
The term "wallpaper" was used in Microsoft Windows before Windows XP (In Windows XP and later, it is called the "desktop background"). Meanwhile, macOS refers to it as "desktop picture". On older systems that allowed small repeated patterns to be set as background images, the term desktop pattern was used.
History
[edit]
The X Window System was one of the earliest systems to include support for an arbitrary image as wallpaper via the xsetroot program, which at least as early as the X10R3 release in 1985 could tile the screen with any solid color or any binary-image X BitMap file. In 1989, a free software program called xgifroot was released that allowed an arbitrary color GIF image to be used as wallpaper, and in the same year the free xloadimage program was released which could display a variety of image formats (including color images in Sun Rasterfile format) as the desktop background. Subsequently, a number of programs were released that added wallpaper support for additional image formats and other features, such as the xpmroot program (released in 1993 as part of fvwm) and the xv software (released in 1994).
The original Macintosh operating system only allowed a selection of 8×8-pixel binary-image tiled patterns; the ability to use small color patterns was added in System 5 in 1987.[1] Mac OS 8 in 1997 was the first Macintosh version to include built-in support for using arbitrary images as desktop pictures, rather than small repeating patterns.[2]
Windows 3.0 in 1990 was the first version of Microsoft Windows to feature support for wallpaper customization, and used the term "wallpaper" for this feature.[3] Although Windows 3.0 only came with 7 small patterns (2 black-and-white and 5 16-color), the user could supply other images in the BMP file format with up to 8-bit color (although the system was theoretically capable of handling 24-bit color images, it did so by dithering them to an 8-bit palette)[4] to provide similar wallpaper features otherwise lacking in those systems. A wallpaper feature was added in a beta release of OS/2 2.0 in 1991.[5]
Due to the widespread use of personal computers, some wallpapers have become immensely recognizable and gained iconic cultural status. Bliss, the default wallpaper of Windows XP, has become the most viewed photograph of the 2000s.[6]
Animated backgrounds
[edit]
Animated backgrounds (sometimes referred to as live backgrounds or dynamic backgrounds) refers to wallpapers which feature a moving image or a 2D / 3D scene as an operating system background rather than a static image, it may also refer to wallpapers being cycled in a playlist, often with certain transition effects. Some operating systems, such as Android, provide native support for animated wallpapers.
Microsoft Windows
[edit]Windows has had several ways of implementing dynamic backgrounds over the years. For example:
- Active Desktop, which is included in Windows 95 OSR 2.5 through Windows XP, allows web apps to run as desktop background and deliver live contents. Animation is one of the possibilities.
- Windows DreamScene, only included with the Ultimate edition of Windows Vista, allows videos of any supported format (including animated GIFs) as wallpapers.
- Starting with Windows 7, the OS can cycle through pictures from a folder at regular intervals. While this does not support animated backgrounds, it does enable third-party software (such as Wallpaper Engine) to fill that gap. This degree of extensibility is unique to Windows.
Android
[edit]Live wallpapers have been introduced in Android 2.0 Eclair to provide native support for animated wallpapers. From a technical point of view, live wallpapers are software applications that provide a moving background image and may allow for user interaction or utilize other hardware and software features within the device (accelerometer, GPS, network access, etc.).[7]
macOS and iOS
[edit]macOS has built-in support, via the Desktop & Screen Saver panel in its System Preferences/Settings, for cycling through a folder collection of images on a timed interval or when logging in or waking from sleep. Since macOS Mojave, the user can also select a "Dynamic Desktop" that automatically updates to visually match the time of the day.[8]
Additionally, macOS has the native ability to run a screen saver on the desktop; in this configuration, the screen saver appears beneath the desktop icons in place of the system wallpaper. However, macOS does not feature a built-in interface to do this; it must be done through Terminal commands or various third-party applications.[9]
Dynamically animated backgrounds have also been introduced in iOS 7 and later versions, however they are restricted to the ones provided by Apple. Jailbroken iOS devices can download other dynamic backgrounds.
Linux distributions
[edit]
Linux distributions usually provides their own original backgrounds. For example:
- Debian puts many alternative backgrounds under the
/usr/share/backgroundsdirectory. - GNOME 2 can be set to cycle through pictures from a folder at regular intervals, similarly to Windows 7.
- MATE provides various wallpapers, usually in the
/usr/share/backgrounds/matedirectory. - KDE version 4 and later provide various dynamic wallpapers, including a slideshow, and other options provided by plugins, such as fractals and Earth map.
- Enlightenment v17 supports image sequences, animated and interactive desktop backgrounds in its default configuration.
See also
[edit]References
[edit]- ^ Robert R. Wiggins, "All systems go. (Software Review) (System Tools 5.0 with MultiFinder.)", MacUser (1 March 1988)
- ^ Franklin N. Tessler, "Mac OS 8 arrives," Macworld (1 September 1997)
- ^ Gus Venditto, "Windows 3.0 brings icons, multitasking, and ends DOS's 640k program limit," PC Magazine (1 July 1990)
- ^ Charles Petzold, "Working with 24-bit color bitmaps for Windows," PC Magazine (10 September 1991)
- ^ Wendy Goldman, "New version may tiop scales in IBM's favor over DOS, Windows: A look at OS/2 2.0," Computer Reseller News (24 June 1991)
- ^ Sweeney, Cynthia (March 26, 2014). "Say goodbye to 'Bliss'". St. Helena Star. Archived from the original on October 24, 2015. Retrieved May 19, 2014.
- ^ "Live Wallpapers (Technical Article)". developer.android.com. Archived from the original on 10 November 2010. Retrieved 5 November 2010.
- ^ "macOS Mojave's dark mode makes late-night computing less painful". Engadget. Archived from the original on June 5, 2018. Retrieved June 6, 2018.
- ^ Set a Screen Saver as the Desktop Background | Terminal Archived 2010-12-27 at the Wayback Machine. Mac OS X Tips (2006-11-09). Retrieved on 2013-07-21.
Wallpaper (computing)
View on GrokipediaFundamentals
Definition and Purpose
In computing, a wallpaper is a digital image, pattern, or graphic used as the decorative background for a graphical user interface (GUI) on devices such as desktops, laptops, smartphones, and tablets.[11] Also known as a desktop background, it covers the entire screen surface behind other UI elements, providing a foundational visual layer for the user's interaction with the system.[12][13] The primary purpose of a wallpaper is to enhance the visual appeal of the interface while enabling personalization, allowing users to reflect their preferences, style, or interests through custom imagery.[13][11] This customization not only improves user satisfaction but also aids in branding or theming, such as in corporate settings where consistent images reinforce company identity and professionalism.[14] Additionally, wallpapers can convey practical information, including motivational content to boost productivity or subtle indicators for system status and reminders.[15] A well-chosen design, particularly one with simple patterns or contrasting colors, further supports usability by ensuring icons, windows, and cursors remain clearly visible against the background.[13] Wallpapers serve key use cases in personalization across various interfaces, such as home screens on mobile devices, lock screens that appear during device inactivity, and extended desktops spanning multiple monitors.[16] Unlike foreground elements like icons or cursors, which are interactive overlays, the wallpaper remains a static or semi-static canvas that does not interfere with core functionality but distinctly separates it from the active workspace.[12] Over time, wallpapers have evolved from simple patterns in early computing environments to high-resolution images that leverage modern display capabilities for immersive experiences.[17]Technical Implementation
In graphical user interfaces, wallpapers are primarily loaded into memory as raster bitmap images (such as JPEG or PNG formats) or scalable vector graphics (SVG), depending on the system's support for vector rendering. These images are then processed through scaling algorithms to match the display's resolution, ensuring they fill the screen without distortion where possible. Alternatively, for patterns or smaller images, the wallpaper may be tiled by repeating the image across the screen to cover the display area without scaling.[18] The scaled or tiled wallpaper is composited as the lowest layer in the display hierarchy, behind all application windows and UI elements, using hardware-accelerated graphics APIs like OpenGL or DirectX for efficient rendering. To prevent visual flicker during screen updates, many systems implement double buffering, where the wallpaper and foreground elements are drawn to an off-screen buffer before being atomically swapped to the visible framebuffer, minimizing tearing and providing smoother visuals.[19][20] Scaling the wallpaper to fit the screen involves preserving the image's aspect ratio to avoid stretching, which is achieved by calculating dimensions based on the limiting factor of screen height or width. For instance, if fitting to height, the new width is computed as \text{new_width} = \text{original_width} \times \left( \frac{\text{screen_height}}{\text{original_height}} \right), with the image centered and padded if necessary; conversely, fitting to width uses \text{new_height} = \text{original_height} \times \left( \frac{\text{screen_width}}{\text{original_width}} \right). This process often includes interpolation methods like bilinear or bicubic filtering to maintain image quality during resizing, though it can introduce minor artifacts in low-resolution sources.[21][22] Once scaled, the wallpaper is stored in system RAM or video RAM (VRAM) for rapid access during rendering cycles, typically occupying space proportional to its resolution—for a 4K display (3840×2160 pixels), a 32-bit color depth bitmap requires approximately 32 MB, though compression techniques can reduce this. This memory allocation occurs early in the boot process or upon user selection, potentially contributing to slight delays in system startup or increased power draw on mobile devices, as the graphics subsystem must decode and cache the image. Performance impacts are more pronounced on resource-constrained hardware, where high-resolution wallpapers may elevate idle GPU usage or extend redraw times during multitasking.[23][24] Integration with window managers occurs through compositing protocols, where the wallpaper forms the root or background surface that all windows are layered upon. In compositing environments, each window maintains an off-screen buffer, and the manager blends these with the wallpaper using alpha transparency and z-ordering to create the final scene, enabling effects like shadows or translucency without altering the base image.[25] This separation ensures the wallpaper remains static unless explicitly updated, allowing efficient repaints of only changed regions. Static wallpapers differ from dynamic ones in that they require a single initial render, whereas animated variants demand ongoing frame updates integrated into the compositor's loop. Accessibility features extend to wallpaper handling by applying system-wide filters, such as high-contrast themes that invert colors or replace the background with a solid, high-luminance color to improve visibility for users with low vision. These modes enforce a minimum contrast ratio of 7:1 between UI elements and the effective background, potentially overriding wallpaper details to prioritize readability, while color inversion can remap the image's palette in real-time without permanent alteration. Such adaptations are triggered via OS settings and propagated through the graphics stack to ensure consistent application across the desktop.[26]Historical Development
Origins in Early GUIs
In the pre-graphical user interface (GUI) era of the 1960s and 1970s, computing interfaces relied exclusively on text-based terminals connected to mainframes, such as the IBM 2741 introduced in 1965, which displayed or printed alphanumeric characters without any visual backgrounds or graphical elements.[27] These systems, including teletypewriters and early video display terminals like the DEC VT05 from 1970, operated in a command-line environment where users interacted via typed instructions on a blank or uniform phosphor screen, emphasizing functionality over aesthetics or spatial organization.[28] The introduction of GUIs marked a pivotal shift, beginning with the Xerox Alto in 1973 at Xerox PARC, which featured a bitmapped monochrome display capable of rendering simple patterned backgrounds to delineate the workspace.[29] This system used a 606 by 808 pixel resolution screen where the background could incorporate subtle patterns, serving as a foundational canvas for overlapping windows and icons, though primarily in black and white to simulate an electronic "sheet of paper." The Alto's design laid the groundwork for visual computing, influencing subsequent systems by integrating hardware like the mouse for direct manipulation. This evolution accelerated with commercial products in the early 1980s, driven by the motivation to replace abstract command-line interactions with intuitive visual metaphors inspired by the physical office desktop, as articulated in early interface research at Xerox PARC.[30] The Apple Lisa, released in 1983, adopted a gray-toned desktop background on its 720 by 364 pixel monochrome display, providing a neutral space for icons and folders to evoke a real-world desk surface.[31] Similarly, the original Macintosh in 1984 featured a solid light gray desktop background, enhancing visibility for black icons and reinforcing the desktop metaphor through its bitmapped interface.[32] A key milestone in widespread adoption came with Microsoft Windows 3.0 in 1990, which introduced support for bitmap-based backgrounds, allowing users to tile simple image patterns across the desktop for the first time in a consumer-oriented GUI shell running atop MS-DOS.[6] This feature, configurable via the control panel, extended the visual paradigm from research prototypes to accessible personal computing, though limited to monochrome or basic color patterns due to hardware constraints.Evolution Across Operating Systems
The 1990s ushered in foundational advancements in wallpaper functionality for major operating systems, transitioning from basic patterns to customizable images. Microsoft Windows 95, released in 1995, pioneered plug-and-play support for bitmap images as desktop backgrounds, enabling users to set any supported image file directly without complex configuration, a leap from the tile-based patterns of Windows 3.1.[4][6] Apple's Mac OS 8, launched in 1997, enhanced this by introducing expanded desktop picture options and better integration for multi-monitor environments, where users could apply consistent backgrounds across multiple displays—a feature building on Apple's early multi-monitor hardware support since the Macintosh II in 1987.[33][34] The 2000s emphasized higher fidelity and thematic integration, aligning wallpapers with broader OS aesthetics. Windows XP in 2001 elevated the concept through its Visual Styles and Themes feature, which supported high-resolution images (up to 1024x768 at the time) bundled in theme packs for seamless customization of backgrounds alongside icons and sounds.[4][6] In parallel, Linux distributions gained momentum with open-source desktops; GNOME 2.0, released in 2002, included a dedicated Background Preferences tool that simplified setting custom images, promoting widespread adoption of personalized wallpapers in environments like Ubuntu.[35][36] From the late 2000s into the 2010s and beyond, wallpapers evolved toward interactivity and ultra-high resolutions, driven by hardware advances and mobile influences. Android 2.0 (Eclair), introduced in 2009, laid groundwork for live wallpapers in version 2.1 shortly after, permitting animated, touch-responsive backgrounds that consumed minimal resources via OpenGL rendering.[37] Desktop platforms followed suit: Windows 10 in 2015 natively accommodated 4K wallpapers with scalable vector support for crisp rendering on high-DPI displays, later extending to 8K in Windows 11 updates.[4] Similarly, macOS Mojave in 2018 debuted dynamic wallpapers using HEIC format, which shift appearance based on ambient light or time, optimizing for modern Retina and multi-monitor setups.[33] By the mid-2020s, wallpapers have increasingly incorporated cloud integration and artificial intelligence for dynamic, user-centric generation. Services like Windows Spotlight, debuting in Windows 10, stream curated images from Microsoft's cloud, updating daily with contextual content such as news or weather overlays.[4] This trend accelerated with AI tools; in 2025, ChromeOS 138 introduced Freeform AI wallpapers on Chromebook Plus devices, enabling on-device generation of custom designs from text prompts using integrated models, while Windows 11 explored AI-enhanced dynamic variants for personalized, adaptive backgrounds.[38][39]Types of Wallpapers
Static Wallpapers
Static wallpapers consist of single-frame digital images that serve as the unchanging background for a graphical user interface on computers and mobile devices. These images are typically raster-based files in formats such as JPEG or PNG, which allow for detailed visuals without any motion or temporal changes. Unlike dynamic variants, static wallpapers do not require ongoing rendering processes, making them a fundamental element of desktop personalization since the early days of GUIs.[40] One key characteristic of static wallpapers is their minimal impact on system resources, as they load once and remain displayed without continuous processing. This results in negligible CPU and GPU usage, contrasting with animated backgrounds that demand repeated frame calculations. For instance, on battery-powered devices like laptops, static images contribute virtually no drain on power consumption, enabling longer usage times compared to motion-based alternatives.[41][42] Users commonly source static wallpapers from personal photo collections, pre-installed operating system libraries featuring themes like nature scenes or abstract patterns, and free stock image repositories. Popular platforms such as Unsplash and Pexels provide high-resolution options tailored for desktops, while built-in OS selections—such as Microsoft's scenic landscapes—offer ready-to-use examples without additional downloads.[43] Despite their simplicity, static wallpapers have limitations, including a complete absence of interactivity or motion, which can make interfaces feel less engaging over time. Additionally, improper scaling of images to match display resolution may lead to visual clutter, such as stretching or pixelation that distracts from usability. To mitigate this, images should ideally match the screen's aspect ratio and resolution for optimal clarity.[44]Dynamic and Animated Wallpapers
Dynamic wallpapers refer to backgrounds that automatically adjust their appearance based on external factors such as time of day or location, providing a seamless transition between variations without user intervention.[45] For instance, Apple's macOS features dynamic wallpapers like solar gradients, which shift from light blue hues in the morning to deep purple tones in the evening to mimic natural light cycles.[46] In contrast, animated wallpapers involve continuous motion, such as looping video clips, GIF sequences, or interactive elements that create the illusion of life on the desktop or lock screen.[47] These wallpapers leverage graphics technologies to render motion efficiently while balancing resource demands. Common implementations include OpenGL ES for real-time rendering of animations, shaders for effects like color transitions or distortions, and particle systems for simulating natural phenomena such as falling rain or swirling particles.[48] Video decoding is often used for looping media, with the system handling playback through dedicated services like Android's WallpaperService to integrate animations into the background layer.[47] To mitigate performance impacts, many implementations limit the frame rate, which reduces GPU load and power consumption.[49] The primary advantages of dynamic and animated wallpapers lie in their ability to boost user engagement by transforming static screens into immersive, visually stimulating environments that evolve over time.[50] They also enable environmental simulation, such as weather-responsive designs that reflect real-time conditions like rain or sunlight, fostering a deeper connection to surroundings without additional apps.[51] For example, platforms like Android incorporate these features to make devices feel more personalized and responsive to daily contexts. However, these wallpapers present challenges, particularly in resource usage and hardware support. Animated elements demand continuous CPU and GPU processing, leading to higher battery drain on mobile devices compared to static options due to ongoing rendering and display refresh.[49] Compatibility issues arise with older hardware, where insufficient processing power or outdated graphics APIs may result in choppy playback, overheating, or failure to render complex animations altogether.[52]Customization and Management
Methods for Changing Wallpapers
Changing a desktop wallpaper generally involves accessing the system's personalization or display settings, often by right-clicking an empty area on the desktop or navigating to a dedicated preferences menu. From there, users can browse a pre-installed gallery of images, use a file picker to select from local storage, or integrate with online sources for direct downloads within the interface.[53] After selecting an image, various fit modes allow customization to match screen dimensions: stretch expands the image to cover the entire display, potentially distorting proportions; tile repeats the image in a grid pattern; center positions it in the middle with surrounding blank space; fill enlarges or shrinks to occupy the screen while cropping edges; and fit scales proportionally without cropping or distortion. In multi-monitor configurations, common options include spanning a single wide image across all displays or assigning unique wallpapers to individual monitors for personalized setups.[54][55][56] Slideshow functionality enables automatic rotation through a collection of images, with configurable intervals typically ranging from 10 seconds for rapid changes to daily updates, allowing users to refresh their desktop without manual intervention. Recent updates, such as in Windows 11 (as of September 2025), allow setting video files like MP4 directly as wallpapers for looped playback.[57][7] Security considerations include the potential for vulnerabilities in image processing, as operating systems render wallpapers through system processes that can be exploited by malformed files. While risks from static images are generally low when sourced from trusted locations, users should exercise caution with unverified images to avoid potential security issues such as data exposure or privilege escalation.[58] Application of animated wallpapers follows similar selection procedures but requires configuring playback options, as covered in the Dynamic and Animated Wallpapers section. Cross-platform commonalities include keyboard shortcuts, such as combinations invoking display settings directly, and command-line tools for scripted or automated changes, enabling quick adjustments without graphical interfaces.[59][60]Supported Formats and Tools
Common file formats for wallpapers in computing primarily consist of raster images for static content, with JPEG, PNG, and BMP being the most widely supported across operating systems due to their compatibility with display rendering engines.[61] JPEG employs lossy compression, which reduces file size at the cost of some image quality, making it suitable for photographic wallpapers where minor artifacts are less noticeable.[61] In contrast, PNG and BMP utilize lossless compression, retaining full pixel fidelity, which is ideal for graphics with sharp edges, text, or transparency effects.[61] For animated wallpapers, raster formats like GIF support simple looping animations through indexed color palettes, while formats like MP4 with H.264 codec enable video playback for dynamic backgrounds in supported modern desktop environments. Vector formats such as SVG provide scalable static wallpapers that remain crisp at any resolution without pixelation, though native support varies and may require rendering extensions in some systems. Compatibility considerations include balancing compression types with performance; lossless formats like PNG preserve details but result in larger files, potentially increasing load times on resource-constrained devices, whereas lossy JPEG prioritizes speed over perfection.[62] Resolution guidelines recommend a minimum of 1920x1080 pixels for high-definition (HD) displays to ensure sharpness without upscaling artifacts, with higher resolutions like 3840x2160 preferred for 4K screens.[63] Software tools for creating and editing wallpapers range from built-in options to professional applications. Operating systems provide native editors, such as Microsoft Paint in Windows for basic raster adjustments and cropping to screen dimensions. Third-party tools like Adobe Photoshop offer advanced features for layering, color correction, and format export, enabling custom designs optimized for wallpaper use. Open-source alternatives such as GIMP provide similar capabilities, including support for multiple formats and plugins for animation creation, making it accessible for users seeking free options. Format converters facilitate compatibility, with tools like IrfanView allowing batch conversion between JPEG, PNG, and other formats while maintaining quality settings. Best practices emphasize optimizing file size to under 5 MB for efficient system performance and reduced memory usage during rendering, achieved through appropriate compression levels and resolution matching without unnecessary metadata.[64]Platform-Specific Implementations
Microsoft Windows
In Microsoft Windows, wallpaper customization is primarily managed through the Personalization settings in the Settings app, introduced in Windows 10 and continued in Windows 11, allowing users to select from pictures, solid colors, slideshows, or Windows Spotlight for dynamic daily images.[18] This interface supports high-resolution static images, including 4K formats, and slideshows that cycle through multiple images from a specified folder at user-defined intervals, with features like shuffling and fit options (such as fill, fit, stretch, tile, center, or span) to optimize display across screens.[18] These capabilities originated in Windows 8, released in 2012, which enhanced support for high-definition wallpapers and slideshows to accommodate emerging multi-monitor and high-resolution setups.[6] Animated wallpaper support in Windows began with DreamScene, a feature exclusive to Windows Vista Ultimate in 2007 that enabled users to set optimized video files in .wmv or .mpg formats as dynamic desktop backgrounds, though it was limited by hardware demands and edition restrictions.[65] DreamScene was discontinued in subsequent versions like Windows 7, where it was replaced by static slideshows, but Windows 11 revived official animated wallpaper functionality in the 25H2 update released in October 2025, allowing video files such as MP4 or MKV to serve as live backgrounds directly through the Personalization settings, echoing DreamScene's capabilities with improved performance on modern hardware.[66] While Windows 11 includes extensions for HEIF and HEVC formats to view high-efficiency images and videos, native support for setting HEIF-based dynamic wallpapers remains limited, often requiring third-party tools for full integration.[67] A distinctive aspect of Windows wallpapers is their integration with themes available from the Microsoft Store, which bundle coordinated wallpapers, colors, sounds, and cursors for a cohesive personalization experience, downloadable directly within the Settings app.[68] Additionally, Windows supports independent wallpapers across multiple monitors, enabling users to assign different images or slideshows to each display via the Background settings, with options to span a single image across all screens if preferred.[69] As of November 2025, Windows 11 version 25H2 includes AI-themed wallpapers in light, dark, and OLED-optimized variants to complement Copilot's visual elements.[70]macOS
In macOS, wallpaper management is accessed through the System Settings application, where users navigate to the Wallpaper pane to select, customize, and apply desktop backgrounds.[45] This interface supports both static and dynamic wallpapers, with native compatibility for the HEIC format introduced in macOS Mojave (version 10.14, released in 2018), enabling efficient storage of high-resolution images and multiple frames within a single file.[45][71] Dynamic wallpapers in macOS adapt automatically to environmental and system conditions, such as transitioning between light and dark variants to align with the user's selected appearance mode, introduced alongside Dark Mode in Mojave.[45][46] These wallpapers also incorporate location-based changes, using the device's geolocation to adjust visuals based on time of day; for example, the Solar Gradients wallpaper shifts from a light sky blue during morning hours to deeper purple tones at night, simulating solar progression.[45][46] For customization, macOS integrates with built-in tools like the Preview application, which allows users to edit images—such as cropping, adjusting colors, or annotating—before setting them as wallpapers. Additionally, the Photos app provides seamless access to personal libraries, enabling direct selection of albums or individual images within the Wallpaper settings for quick application.[2] Significant evolutions include macOS Big Sur (version 11, released in 2020), which introduced translucent UI effects through a "wallpaper tinting" feature that subtly colors menu bars, sidebars, and windows based on dominant hues in the active wallpaper, enhancing visual cohesion while offering an option to disable it for accessibility.[72] In macOS Sonoma (version 14, released in 2023), desktop widgets can now overlay wallpapers directly, blending transparently with the background when windows are active to maintain focus on content without obscuring the aesthetic.[45] macOS Sequoia (version 15, released in 2024) continued these trends with improved dynamic wallpaper options. As of November 2025, macOS Tahoe (version 26, released September 15, 2025) introduces the LUSTRA wallpaper collection optimized for the new Liquid Glass UI design, featuring aerial and nature-themed static and dynamic wallpapers with adaptive rendering that adjusts based on lighting and user preferences. It also adds 15 new screen savers that pair with wallpapers for enhanced visual experiences.[73][74] These dynamic and interactive elements share conceptual similarities with iOS implementations, though macOS emphasizes multi-monitor and larger display support.[45]Linux Distributions
In Linux distributions, wallpaper management is primarily handled by desktop environments (DEs) such as GNOME, KDE Plasma, and XFCE, which provide graphical interfaces for selecting and configuring backgrounds while leveraging the open-source nature of the system for modular extensibility.[75] GNOME, the default DE in many distributions like Ubuntu and Fedora, uses the Settings application to manage wallpapers, allowing users to select static images, solid colors, or slideshows that cycle through multiple pictures at set intervals.[76] This functionality was enhanced in GNOME 3, released in 2011, which introduced a unified Settings panel for desktop customization, including background options accessible via right-clicking an image in the file manager or directly in the app.[77] KDE Plasma offers advanced wallpaper configuration through System Settings under Workspace > Desktop, supporting various types such as single images, slideshows, and plugin-based options like fractal patterns or color-shifting effects, with the ability to apply independent wallpapers to multiple virtual desktops via activities or per-desktop settings.[78][79] XFCE provides lightweight wallpaper handling in its Desktop settings dialog, specifically the Background tab, where users can choose images, adjust scaling styles (e.g., centered, tiled, or stretched), and enable slideshows for automatic rotation.[80] Animated wallpapers are supported across most DEs through specific formats like GIF, which Plasma can display natively as looping animations, while GNOME and XFCE typically require extensions or compositing managers such as Compiz for effects like animated transitions or video playback behind the desktop.[81][82] High customizability is a hallmark of Linux wallpaper management, with command-line tools like feh—a lightweight image viewer and setter that supports setting backgrounds via simple commands such asfeh --bg-scale image.jpg—and nitrogen, a GTK-based browser and setter for X11 environments that allows previewing and applying images from directories.[83][84]
Distro variations affect defaults; for instance, Ubuntu employs a customized GNOME interface with themed wallpapers and extensions pre-integrated for easier dynamic backgrounds, whereas Fedora uses a vanilla GNOME setup emphasizing stock wallpapers and minimal modifications for broader compatibility.[85][86]