Yorùbá Ìrọ̀rùn Keyboard Layout: Full Setup & Typing Guide (2026)

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For years, digital communication in Yorùbá was plagued by a frustrating reality: the constant, manual copy-pasting of characters like ẹ, ọ, and ṣ. In 2026, as Yorùbá content creation thrives across social media and academic research, relying on legacy character maps is no longer sustainable. Whether you are drafting professional correspondence or engaging in digital scholarship, the Yorùbá Ìrọ̀rùn Keyboard Layout provides the definitive solution for high-speed, accurate, and native-level text production.

The beauty of this system lies in its design philosophy: it does not force you to relearn your entire typing flow. By leveraging the industry-standard QWERTY base, the Yorùbá Ìrọ̀rùn Keyboard Layout integrates seamlessly into your existing workflow. It transforms your keyboard into a bilingual powerhouse, allowing you to switch between English and Standard Yorùbá with near-zero latency. By utilizing strategic dead keys—where a single modifier key precedes the target character—the layout ensures that tonal marks and subdots are applied with ergonomic precision, eliminating the “broken text” issues common with older, non-Unicode-compliant systems.

In this guide, we will walk you through the precise installation steps, the specific keystroke combinations required to master the layout, and how to troubleshoot common compatibility issues across your devices. It is time to stop fighting your keyboard and start writing Yorùbá with the fluidity it deserves.

What Is the Yorùbá Ìrọ̀rùn Keyboard Layout?

The Yorùbá Ìrọ̀rùn keyboard layout is a specialized, modern digital input system designed to accommodate the three distinct tonal marks of the Yorùbá language—the grave (à), the acute (á), and the macron (ā)—without requiring cumbersome character maps or restrictive dead-key sequences. It prioritizes ergonomic efficiency and seamless integration with existing QWERTY hardware.

Etymology and Meaning of ‘Ìrọ̀rùn’

The term Ìrọ̀rùn is deeply rooted in the Yorùbá linguistic philosophy, translating directly to “ease,” “convenience,” or “simplicity.” In the context of digital typography, the name is not merely aesthetic; it serves as a functional manifesto. For decades, Yorùbá speakers were forced to navigate “clunky” input methods that treated their tonal markers as secondary, often requiring the use of complex alt-codes or special software plugins that disrupted the natural flow of thought.

By adopting the moniker Ìrọ̀rùn, the developers signal a shift from technical friction to cognitive fluidity. The layout aims to remove the “mental tax” associated with switching between English and Yorùbá modes. When a user types in Ìrọ̀rùn, the keyboard acts as an extension of the language’s natural prosody, allowing speakers to focus on the nuance of their communication rather than the mechanics of character insertion. It represents the democratization of Yorùbá digital expression, ensuring that the language remains vibrant and accessible in an increasingly ASCII-dominant internet landscape.

Historical Challenges of Typing Yorùbá Digitally

The digital history of the Yorùbá language has been marred by inconsistent encoding standards and hardware limitations. Before the standardization of Unicode, many Yorùbá speakers relied on “hacky” workarounds, such as using non-standard fonts where letters were substituted with symbols, or utilizing “dead keys” that often malfunctioned across different operating systems. This created a fractured digital environment where data sharing between platforms—such as from a Windows PC to a mobile device—frequently resulted in “mojibake” or illegible text strings.

The primary bottlenecks historically included:

• Inconsistent Encoding: Reliance on legacy 8-bit encodings that lacked support for the specific combinations of sub-dots and tonal marks (ẹ, ọ, ṣ).
• Cognitive Load: The requirement to memorize obscure keyboard shortcuts (e.g., ALT + 0233) which slowed typing speeds by up to 60%.
• Platform Fragmentation: Software that worked on desktop environments often failed to translate to the touch-screen interfaces of early smartphones.

The Architectural Philosophy: QWERTY Coexistence

The Ìrọ̀rùn layout is engineered on the principle of “QWERTY Coexistence,” ensuring that users do not have to discard their muscle memory. Rather than reinventing the wheel, Ìrọ̀rùn maps tonal marks to intuitive positions that respect the standard English keyboard layout. This architectural choice is critical for adoption, as it drastically lowers the barrier to entry for bilingual speakers who toggle between English and Yorùbá throughout the day.

Feature	Legacy Input Methods	Ìrọ̀rùn Layout
Learning Curve	Steep (Requires memorization)	Minimal (Intuitive mapping)
Speed	Slow (Constant context switching)	High (Native-like fluency)
Compatibility	Low (Proprietary software)	Universal (Unicode-compliant)

By leveraging the universal Unicode standard, the Ìrọ̀rùn layout ensures that every character typed is correctly rendered across all modern web browsers, mobile operating systems, and professional design software. This structural integrity is the backbone of its success, effectively bridging the gap between historical linguistic preservation and the demands of the digital age.

Anatomy of Yorùbá Orthography and Input Mechanics

Yorùbá orthography relies on a pitch-accent tonal system and sub-diacritical punctuation to distinguish lexical meaning across identical vowel-consonant sequences. Digital input requires precise combining diacritics and Unicode normalization (NFC) to prevent rendering failures; the Yorùbá Ìrọ̀rùn Keyboard Layout systematically maps these phonological requirements to modern hardware without broken glyph sequences or font corruption.

Understanding Tone Marks: Àmì Ókè, Àmì Ìsàlẹ̀, and Mid-Tone

Yorùbá is an obligate tonal language comprising three distinctive pitch registers: high, mid, and low. In spoken discourse, these tonal variations alter semantics entirely. For instance, the sequence o-w-o transforms radically depending on pitch: owó (money) employs a mid-high pitch, ọ̀wọ̀ (respect) uses two low pitches with subdots, and ọwọ́ (hand) merges a low-vowel subdot with a high-tone terminus. Within standardized orthography, these pitches are demarcated using explicit diacritics known as àmì ohùn:

• Àmì Ókè (High Tone): Represented by the acute accent ( ´ ), signifying a rising or sharp pitch contour (sol-fa notation: Mí). In digital text, it is encoded as combining acute accent U+0301 or via precomposed glyphs like á (U+00E1).
• Àmì Ìsàlẹ̀ (Low Tone): Denoted by the grave accent ( ` ), indicating a falling or deep pitch contour (sol-fa notation: Dò). Digitally rendered via combining grave accent U+0300 or precomposed forms like à (U+00E0).
• Àmì Àárín (Mid Tone): Signified by an unmarked vowel (sol-fa notation: Re). While phonetically neutral, its digital representation requires strict non-interference; legacy typing software frequently introduced ghost glyphs or spurious spacing when attempting to bypass mid-tone characters.

The operational barrier on standard QWERTY configurations is that typing an accented character requires either memorizing obtuse Alt codes (e.g., Alt + 0224) or relying on European dead keys that fail when combined with subdotted open vowels. The Yorùbá Ìrọ̀rùn Keyboard Layout addresses this friction by assigning intuitive dead-key triggers directly on the baseline home or symbol rows, allowing typists to dynamically layer àmì ókè and àmì ìsàlẹ̀ across both standard vowels and nasalized consonants like n and m without context switching.

The Underdot Mystery: Handling Ẹ, Ọ, and Ṣ

Beyond tonal variation, the standard Yorùbá alphabet (Álífábẹ́ẹ̀tì Yorùbá) features distinct phonemes represented by an underdot (àmì-abẹ́) or vertical underbar: Ẹ (/ɛ/), Ọ (/ɔ/), and Ṣ (/ʃ/). These are not mere stylistic variants of E, O, and S; they are fundamentally distinct phonemes. The loss of an underdot renders a sentence completely unintelligible or introduces catastrophic errors in semantic extraction, natural language processing (NLP), and translation systems.

For decades, digital typists improvised through sub-optimal workarounds, substituting underbars, tildes, or cedillas (yielding typographic anomalies like ç instead of ṣ, or ę instead of ẹ). When operating systems do not support intuitive access to Combining Dot Below (U+0323), users are forced to copy-paste characters or sacrifice orthographic integrity. The technical challenge intensifies when a character requires simultaneous representation of both vowel quality (underdot) and tonal register (acute or grave accent)—such as in ẹ̀ (low-tone open e) or ọ́ (high-tone open o).

The Yorùbá Ìrọ̀rùn Keyboard Layout resolves this compound glyph architecture natively. By chaining the underdot modifier key with the respective vowel and tone key, the driver constructs the full character stack cleanly, eliminating the erratic horizontal displacement—commonly known as “diacritic drift”—plaguing legacy input systems.

Base Letter	With Underdot (Phoneme)	Combined with Àmì Ókè	Combined with Àmì Ìsàlẹ̀	IPA Phonetic Value
E / e	Ẹ / ẹ	Ẹ́ / ẹ́	Ẹ̀ / ẹ̀	/ɛ/ (open-mid front unrounded)
O / o	Ọ / ọ	Ọ́ / ọ́	Ọ̀ / ọ̀	/ɔ/ (open-mid back rounded)
S / s	Ṣ / ṣ	N/A (Consonant)	N/A (Consonant)	/ʃ/ (voiceless postalveolar fricative)

Combining Characters vs. Precomposed Unicode Standards

Digital fragmentation in African languages frequently stems from encoding divergences between decomposed sequences (NFD: Normalization Form D) and precomposed single characters (NFC: Normalization Form C). In NFD, a compound glyph like ọ́ is written into the byte stream as three distinct code points: the base Latin character o (U+006F), followed by Combining Dot Below (U+0323), followed by Combining Acute Accent (U+0301). In NFC, Unicode resolves identical characters into precomposed equivalents wherever standardized, or normalizes the order of canonical combining marks.

When input utilities emit unvalidated NFD data, several technical failures emerge in modern computing environments:

1. Font Rasterization Breakdowns: Many web browsers and operating system font engines (such as older DirectWrite or FreeType implementations) fail to anchor multiple stacked combining diacritics. The result is the dreaded “tofu” glyph (empty rectangle), overlapping accents, or marks trailing to the side of the letter.
2. Database and Search Failure: An SQL query or indexing crawler matching a precomposed ẹ (U+1EB9) will fail to index an unnormalized decomposed sequence e + U+0323, rendering content invisible to search engines and AI vector embeddings.
3. String Mutation in String Metrics: In programming environments like Python or JavaScript, an unnormalized decomposed string miscalculates string length, skewing character counters and corrupting truncation algorithms.

The Yorùbá Ìrọ̀rùn Keyboard Layout addresses these structural pitfalls by generating deterministic, NFC-aligned input streams straight from the keyboard buffer. Rather than emitting orphaned combining diacritics that depend on unpredictable client-side rendering engines, the layout standardizes the canonical byte order instantaneously. This architectural precision guarantees that Yorùbá digital text written on mobile or desktop interfaces displays uniformly across modern browsers, legacy text engines, and algorithmic language models.

How the Yorùbá Ìrọ̀rùn Keyboard Layout Maps Keys

The Yorùbá Ìrọ̀rùn keyboard layout utilizes a sophisticated dead-key mechanism and AltGr modifier strategy to seamlessly map the complex Yorùbá orthography to standard QWERTY hardware. By combining base vowels with specific modifier keys, users can generate subdots and tonal marks (acute, grave, and macron) without switching input languages or relying on cumbersome character maps.

Primary Modifiers: The Role of AltGr and Tilde (~)

The Ìrọ̀rùn layout relies on the AltGr (Right Alt) key as the primary engine for accessing subdotted characters. In this architecture, the AltGr key acts as a state-shifter that redefines the function of the standard vowel keys. By holding AltGr while pressing a vowel key, the system triggers a programmatic override that outputs the corresponding subdotted character (e.g., AltGr + O becomes Ọ).

The tilde (~) key is repurposed as a “dead-key” modifier for tone application. Unlike a direct keypress, a dead-key does not output a character immediately. Instead, it waits for the subsequent keystroke to apply the specific tonal diacritic to the target vowel. This mimics the logical flow of Yorùbá phonology, where the vowel is the base and the tone is the overlay.

Dead-Key Mechanisms for Tone Application

To produce tonal marks, the Ìrọ̀rùn layout uses a sequential input method. This ensures that typing flows at the speed of thought, preventing the need to hunt for individual Unicode entities. The process follows a “Modifier + Vowel” pattern to produce the desired tonal output efficiently.

Tonal Mark	Keyboard Input Sequence	Resulting Character
Acute (´)	' (Apostrophe) + Vowel	á, é, ẹ́, í, ó, ọ́, ú
Grave (`)	` (Backtick) + Vowel	à, è, ẹ̀, ì, ò, ọ̀, ù
Macron (¯)	- (Hyphen) + Vowel	ā, ē, ẹ̄, ī, ō, ọ̄, ū

Typing Subdot Characters: Dedicated Key Combinations

Subdotted characters (ẹ, ọ, ṣ) are the most frequent structural elements in written Yorùbá. Because these are distinct characters rather than merely accented vowels, the Ìrọ̀rùn layout maps them to dedicated combinations using the AltGr modifier. This is a deliberate design choice to ensure that the “base” of the language is accessible with a single modifier-key press, rather than a two-step dead-key process.

Pro-tip: If you are typing on a laptop without a dedicated numeric keypad, ensure your OS input settings are configured to recognize the Ìrọ̀rùn layout as the primary system keyboard. This allows the AltGr mapping to persist across all software applications, including web browsers and text editors, without requiring additional plugins.

Capitalization Rules for Accented Vowels

Capitalization in the Ìrọ̀rùn layout follows standard English conventions but extends them to account for diacritics. When a user engages the Shift key, the layout automatically interprets the subsequent dead-key sequence as a request for an uppercase accented character. For instance, pressing Shift + [Backtick] + E will correctly output È, rather than a lowercase letter.

The logic is hierarchical: the system first detects the Shift state, then the dead-key tone, and finally the base character. This ensures that the user does not have to manually toggle Caps Lock or perform complex post-formatting. By maintaining this strict logical hierarchy, the Ìrọ̀rùn layout ensures that proper nouns and sentence-starting words are formatted according to Yorùbá orthographic standards without breaking the user’s typing cadence.

Step-by-Step Installation and Configuration Guide

To install the Yorùbá Ìrọ̀rùn keyboard layout, download the appropriate installer package for your operating system from the official repository. On Windows and macOS, execute the setup wizard and add the layout via system language settings. On Linux, move the definition file to your XKB directory and configure it through your desktop environment’s input settings.

Installing Yorùbá Ìrọ̀rùn on Windows 11 and Windows 10

Windows integration requires the use of the Microsoft Keyboard Layout Creator (MSKLC) or a pre-compiled installer package. Begin by downloading the .msi or setup.exe file from the official source. Once downloaded, run the installer with administrative privileges. If Windows Defender triggers a “SmartScreen” warning, select “More info” and click “Run anyway,” as custom keyboard drivers often lack Microsoft’s expensive digital signature.

After installation, restart your computer to ensure the kernel registers the new input DLL. Navigate to Settings > Time & Language > Language & Region. Click the three dots next to your primary language, select “Language options,” and then “Add a keyboard.” Search for “Yorùbá Ìrọ̀rùn” in the list. Once added, you can toggle between your standard QWERTY layout and the Yorùbá Ìrọ̀rùn layout using the Win + Space shortcut.

Configuring Custom Input Sources on macOS Sonoma and Sequoia

Apple’s macOS handles custom layouts via .bundle files placed in the system’s library. Download the .bundle file and move it to /Library/Keyboard Layouts/. You will likely need to provide your administrator password to authorize this action. After moving the file, navigate to System Settings > Keyboard > Input Sources.

Click the “+” icon to add a new source, select “Others” in the sidebar, and locate the Yorùbá Ìrọ̀rùn layout. Pro-Tip: On Sonoma and Sequoia, ensure you toggle “Show Input menu in menu bar” to allow for rapid switching during multilingual typing sessions. If the layout does not appear immediately, a logout and re-login are required to refresh the InputMenu process.

Linux Implementation (X11 & Wayland / XKB Options)

Linux offers the most robust customization options via the XKB (X Keyboard Extension) framework. To install, copy the layout definition file into /usr/share/X11/xkb/symbols/. You must then edit the evdev.xml file located in /usr/share/X11/xkb/rules/ to register the layout so that desktop environments like GNOME or KDE Plasma can detect it.

Feature	X11 Support	Wayland Support
Ease of Mapping	High (Direct XKB file)	Moderate (Requires compositor config)
Persistence	Global via localectl	Session-based (DE specific)

For users on Wayland, ensure your compositor (e.g., Sway or Mutter) is configured to reload the XKB map on startup. Using localectl set-x11-keymap is the most reliable way to ensure the layout persists across reboots on systemd-based distributions like Fedora or Ubuntu.

Setting Up Mobile Equivalents on Android and iOS

Mobile platforms do not allow for low-level system keyboard replacement in the same way desktops do. Instead, use an extensible keyboard app like Gboard or SwiftKey. In Gboard, navigate to Settings > Languages > Add Keyboard. Search for “Yorùbá” and select the layout that supports the Ìrọ̀rùn mapping.

On iOS, go to Settings > General > Keyboard > Keyboards > Add New Keyboard. If a standalone Yorùbá Ìrọ̀rùn app is available in the App Store, install it and grant “Full Access” in the keyboard settings. This is a crucial security step—without “Full Access,” the keyboard cannot communicate with the system to provide the necessary diacritic characters required for fluent Yorùbá writing.

Yorùbá Ìrọ̀rùn Quick-Reference Cheat Sheet

The Yorùbá Ìrọ̀rùn keyboard layout streamlines complex orthographic input by mapping tonal diacritics—grave (`) and acute (´)—to dedicated modifier keys. By utilizing a standardized “dead key” system, users can generate characters like Ẹ, Ọ, and Ṣ with single-stroke precision, significantly increasing typing speed and linguistic accuracy across digital platforms.

Vowels with Tones (A, E, Ẹ, I, O, Ọ, U)

Mastering Yorùbá vowels requires navigating the distinction between the standard Latin characters and the sub-dotted variants (Ẹ and Ọ). The Ìrọ̀rùn layout integrates these seamlessly by treating the sub-dot as a primary character state rather than an additional symbol, preventing the common “character-hopping” issues found in standard QWERTY configurations.

When typing, the tone mark is applied immediately after the vowel. For example, to produce À, you strike the base vowel key followed by the grave accent key. The Ìrọ̀rùn system is designed to respect Unicode normalization, ensuring that your text remains searchable and compatible with modern AI-driven search engines and databases.

Character	Key Sequence	Unicode Codepoint
À / Á	[A] + [`] / [´]	U+00C0 / U+00C1
Ẹ̀ / Ẹ́	[Ẹ] + [`] / [´]	U+1EB8 / U+1EB9
Ọ̀ / Ọ́	[Ọ] + [`] / [´]	U+1ECC / U+1ECD
Ì / Í	[I] + [`] / [´]	U+00CC / U+00CD

Nasal Consonants with Tone Marks (M̀, Ń)

Nasal consonants in Yorùbá—specifically the syllabic ‘m’ and ‘n’—are critical for conveying grammatical tense and aspect. The Ìrọ̀rùn layout treats these as unique graphemes. Unlike standard English keyboards, which often force users to insert symbols via a “Special Characters” menu, Ìrọ̀rùn treats the tone-marked nasal as a high-frequency primary entry.

Pro-tip: When typing Ń or M̀, ensure your keyboard is set to the “Yorùbá Ìrọ̀rùn” input method in your OS language settings. If the tone mark appears as a separate character (a spacing grave/acute), it indicates that your software is not correctly normalizing Unicode. Always verify that your input method is active, as the system relies on the specific mapping of the combining diacritical marks subset of the Unicode standard.

Special Punctuation and Currency Symbols (The Naira Symbol ₦)

Beyond alphabetics, the Ìrọ̀rùn layout is engineered to handle the ₦ (Naira) symbol, the official currency of Nigeria. While standard QWERTY keyboards often relegate the ₦ symbol to obscure character maps, the Ìrọ̀rùn layout promotes it to a top-tier shortcut.

• Naira Symbol (₦): Typically mapped to [AltGr] + [N] or [Shift] + [4] (depending on your specific version of the Ìrọ̀rùn driver). This ensures that financial documentation and digital communication remain professional and culturally accurate.
• Punctuation Nuance: The layout also optimizes for Yorùbá-specific punctuation, ensuring that quotation marks and apostrophes do not interfere with the vowel tone modifiers. Always use the Ìrọ̀rùn-native apostrophes when denoting elisions to ensure that search crawlers correctly identify the word boundaries in your Yorùbá content.

By leveraging these shortcuts, you reduce the cognitive load of switching between English and Yorùbá modes, allowing for a fluid, professional writing experience that meets the high standard of E-E-A-T-focused digital publishing.

Troubleshooting Common Diacritic and Font Errors

Most diacritic rendering issues when using the Yorùbá Ìrọ̀rùn Keyboard Layout stem from font-family incompatibilities or outdated character encoding rather than hardware failure. To resolve these, ensure your text editor supports Unicode (UTF-8) and utilize high-quality, pan-African compliant fonts such as Charis SIL, Andika, or Noto Sans to guarantee proper anchor placement for sub-dots and tonal marks.

Fixing Tonal Diacritic Misalignment and Floating Accents

Floating accents—where the sub-dot or tonal mark appears disconnected from the vowel—occur primarily when the software’s rendering engine fails to recognize the “combining diacritical marks” block in Unicode. This is common in legacy software that attempts to treat Yorùbá characters as standard ASCII rather than extended Unicode. When a character like ọ or ẹ displays the dot hovering beside the letter, the root cause is almost always a font that lacks the necessary OpenType features to anchor diacritics correctly.

To rectify this, force a font override. Select your text and switch to a professional-grade typeface designed for linguistic precision. If the issue persists in a specific application, check the “Ligatures” or “Advanced Typography” settings. Disabling standard ligatures often forces the rendering engine to fall back to basic character mapping, which frequently resolves the floating accent bug by bypassing the font’s complex, broken look-up tables.

Resolving Character Replacement and Box/Question Mark Glyphs

The appearance of “tofu” (empty rectangular boxes) or question marks indicates that the currently selected font does not contain the specific glyphs for Yorùbá characters. This is a “font-fallback” failure where the operating system attempts to display a character that is missing from the active font’s character map. In professional publishing environments, this often happens when importing text from a web-based clipboard into a desktop publishing suite like Adobe InDesign or Scribus.

If you encounter these glyph errors, follow this diagnostic hierarchy:

• Verify Encoding: Ensure your document is saved as UTF-8. Non-Unicode formats (like ANSI or Windows-1252) will permanently strip diacritics and replace them with static boxes.
• Global Font Refresh: Use a “Find and Replace” function to swap the entire document font to a Unicode-compliant typeface like Noto Sans Yorùbá.
• Driver/Input Refresh: If you are on Windows, ensure the “Language for non-Unicode programs” in your Regional Settings is set to English or Yoruba (if available) to ensure the system doesn’t interpret the input as an incompatible regional code page.

Ensuring Proper Export in Microsoft Word, Google Docs, and PDFs

Exporting documents is the most common point of failure for Yorùbá orthography. When saving to PDF, the software must “embed” the fonts used. If you select “Subset fonts” without including the specific Yorùbá diacritics, the PDF will look correct on your machine but display as boxes on any other device. Always choose “Embed all fonts” in your PDF export settings.

Platform	Critical Export Setting	Pro-Tip for Stability
Microsoft Word	Embed fonts in file (Options > Save)	Use “Print to PDF” rather than “Save as PDF” if formatting breaks.
Google Docs	Download as PDF (Standard)	Google’s web-fonts are native; avoid copy-pasting from Word to prevent hidden formatting codes.
Adobe PDF	Include subsetting: 100%	Ensure “Subset fonts when percent of characters used is less than” is set to 100% or disabled.

For collaborative projects, avoid “Track Changes” if possible, as the metadata markers in Microsoft Word can sometimes interfere with the positioning of combining diacritics. If you must use tracked changes, finalize the document by “Accepting All Changes” and stripping the metadata before sharing the final file with stakeholders who may not have the Yorùbá Ìrọ̀rùn keyboard or the necessary Unicode fonts installed.

Conclusion & Key Next Steps

Adopting the Yorùbá Ìrọ̀rùn Keyboard Layout is more than a technical adjustment; it is a vital step toward digital linguistic sovereignty. By prioritizing a design that respects the standard QWERTY workflow while seamlessly integrating the complex tonal and subdot requirements of the Yorùbá language, Ìrọ̀rùn removes the friction that has historically hindered native-language digital content creation. When you eliminate the cognitive load associated with switching between non-standard layouts, you unlock the ability to write with speed, precision, and cultural authenticity.

As we move toward a more inclusive digital future, the widespread use of Ìrọ̀rùn will ensure that Yorùbá remains a vibrant, living language in text messaging, academic research, and global communications. Whether you are a student, a creative professional, or a digital advocate, integrating this layout into your daily workflow is the most effective way to preserve the linguistic integrity of the Yorùbá language. Start your transition today, and experience the fluidity of typing your mother tongue with the efficiency it deserves.

Frequently Asked Questions

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