Web accessibility
Shared library of AI agent skills — works across Claude Code, Cursor, Codex, Windsurf, OpenCode, and Google Antigravity via a single universal installer.
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Routing-first skill for web accessibility remediation and verification. Use when the main job is classifying which accessibility surface is failing — semantics, keyboard/focus, labels/announcements, visual perception/reflow, media alternatives, or routed-app navigation feedback — and turning vague audit, WCAG, axe/Lighthouse, or "make this accessible" requests into one concrete remediation packet. Route broad UI critique to `web-design-guidelines`, component API architecture to `ui-component-patterns`, responsive layout strategy to `responsive-design`, and system governance to `design-system`.
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SKILL.md
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Web Accessibility
Use this skill when the job is to name the failing accessibility surface, fix it at the right layer, and leave behind a short remediation + verification packet.
The job is not to dump generic WCAG prose, paste raw scanner output, or absorb every neighboring frontend concern.
This skill should:
- classify the failing accessibility surface,
- separate automated findings from manual or assistive-technology follow-up,
- choose the smallest credible remediation packet,
- keep routed-app feedback and focus behavior explicit,
- route broader design/layout/component-governance work honestly.
Read these support docs first:
- references/intake-packets-and-route-outs.md
- references/audit-remediation-checklist.md
- references/handoff-boundaries.md
When to use this skill
- A team says “make this accessible” and the missing accessibility surface is still unclear
- axe, Lighthouse, Accessibility Insights, Pa11y, QA notes, or user reports need to be turned into one remediation plan instead of a raw finding dump
- You need to decide whether the main issue is semantics, keyboard/focus, labels/announcements, reflow/contrast/motion, media alternatives, or routed-app navigation feedback
- A modal, form, nav, menu, table, dashboard, or routed flow needs manual-vs-automated verification guidance before release
- Screen-reader, keyboard-only, or zoom/reflow issues are suspected, but ownership and next checks are unclear
When not to use this skill
- The main task is broad UI polish, heuristic review, hierarchy, or interface consistency →
web-design-guidelines - The main task is reusable primitive / slot / variant API design or component-family ownership →
ui-component-patterns - The main task is viewport adaptation, breakpoint strategy, container-query planning, or layout overflow control →
responsive-design - The main task is token governance, contribution rules, or system-wide frontend standards →
design-system - The task is only to run one tool and paste raw results; run the tool directly, then return here to prioritize remediation and manual follow-up
Instructions
Step 1: Frame the accessibility job before naming fixes
Capture the minimum packet first.
accessibility_intake:
surface: page | routed-flow | modal | form | nav | menu | table | dashboard | component-family | mixed | unknown
workflow_type: audit-review | remediation-pass | release-readiness | regression-follow-up | user-reported-bug | design-system-follow-up
signal_source: axe | lighthouse | accessibility-insights | pa11y | manual-qa | screen-reader-report | user-feedback | mixed | unknown
primary_surface: semantics | keyboard-focus | labels-announcements | visual-perception-reflow | media-alternatives | routed-navigation-feedback | mixed | unknown
severity: blocker | major | medium | low | unknown
ownership: app-team | frontend-platform | design-system | qa-accessibility | shared | unknown
Rule: do not start with “add ARIA,” “run axe again,” or “quote WCAG 2.1.” First label the failing accessibility surface.
Step 2: Choose exactly one primary remediation packet
Use the router in references/intake-packets-and-route-outs.md.
Primary packets:
semantics-structurekeyboard-focuslabels-announcementsvisual-perception-reflowmedia-alternativesrouted-navigation-feedback
Pick the highest-risk user-facing failure as primary. List everything else as follow-up, not as equal co-owners.
Step 3: Keep the invariants visible
These rules survive every answer:
- automated tools accelerate discovery, but they do not prove accessibility completeness
- native HTML semantics beat ARIA patching when native controls already solve the problem
- keyboard/focus failures in interactive flows usually outrank cosmetic cleanups
- routed apps need explicit focus and announcement decisions because browser navigation cues disappear
- labels, instructions, errors, and async status text are part of task completion, not polish
- every remediation recommendation needs a matching manual verification step
Step 4: Build the accessibility remediation packet
Return this structure:
# Accessibility Remediation Packet
## Scope
- Surface:
- Workflow type:
- Primary packet:
- Confidence: high | medium | low
## Current signal
- Tool or report source:
- What is already known:
- What still needs direct verification:
## Highest-risk gaps
1. ...
2. ...
3. ...
## Recommended first slice
1. ...
2. ...
3. ...
## Verification plan
- Automated re-check:
- Manual keyboard / focus:
- Manual screen-reader / AT:
- Visual / zoom / motion / reflow:
## Ownership and route-outs
- Primary owner:
- Adjacent skills / teams:
Step 5: Use the packet, not a giant checklist
Pull the packet from references/intake-packets-and-route-outs.md.
Packet rules:
semantics-structure→ landmarks, headings, lists, tables, buttons/links, form markup, native-first fixeskeyboard-focus→ tab order, visible focus, trap/escape behavior, initial focus, focus return, composite widget behaviorlabels-announcements→ accessible names, helper/error relationships, live regions, status/error messaging, required-state clarityvisual-perception-reflow→ contrast, reduced motion, zoom, reflow, target visibility, state visibilitymedia-alternatives→ alt text, decorative-vs-informative imagery, captions, transcripts, fallback descriptionsrouted-navigation-feedback→ page title / heading announcement, route-change focus strategy, SPA/app-router cues, async load state announcements
Step 6: Separate automated findings from manual proof
Use this split in every serious answer:
- Automated-friendly — missing labels, duplicate IDs, invalid ARIA, simple contrast failures, landmark/heading gaps
- Manual keyboard/focus — tab sequence, visible focus, trap behavior, initial focus, focus return, menu/listbox/dialog interaction
- Manual AT / content quality — announcement usefulness, alt-text quality, label clarity, route-change comprehension, async feedback quality
If the request starts from a scanner, say explicitly that the scanner is the input artifact, not the finished answer.
Step 7: Route adjacent work explicitly
Use these route-outs when the problem crosses boundaries:
| If the real job is... | Route to... |
|---|---|
| broad UI/design review, hierarchy, polish, or guideline compliance | web-design-guidelines |
| reusable component API / primitive ownership / slot-variant design | ui-component-patterns |
| viewport/container layout strategy or breakpoint planning | responsive-design |
| token governance or system-wide frontend standards | design-system |
| React/Next performance or hydration behavior | react-best-practices |
Output expectations
A strong answer from this skill should:
- identify the primary failing accessibility surface,
- recommend one bounded remediation packet,
- name the manual verification still required,
- avoid equating a scanner pass with completion,
- route broader frontend ownership questions outward instead of absorbing them.
Examples
Example 1: modal audit after axe
Input
Audit this checkout modal for accessibility issues and tell me what to test manually after axe.
Output direction
- choose
keyboard-focusorlabels-announcements - treat axe as the input artifact, not the whole workflow
- verify initial focus, trap behavior, focus return, and announcement quality
- keep broader visual-polish critique out unless it materially affects accessibility
Example 2: routed app navigation confusion
Input
Screen-reader users say our React app changes routes but the new page is not announced and focus stays on the old nav link.
Output direction
- choose
routed-navigation-feedback - classify title/heading announcement plus focus-reset strategy
- include manual AT verification after the fix
- avoid turning the task into generic routing architecture work
Example 3: component-boundary confusion
Input
Our button primitive API is messy and some variants are not accessible. Is this web-accessibility or ui-component-patterns?
Output direction
- keep accessible-name, focus-state, and disabled/loading announcement fixes in
web-accessibility - route primitive API / variant ownership to
ui-component-patterns - split the plan instead of forcing one skill to own everything
Example 4: manual checks after Lighthouse
Input
Lighthouse says contrast is okay now. What should I still test manually?
Output direction
- treat this as verification planning, not score celebration
- verify keyboard order, focus visibility, routed-flow cues, and screen-reader announcement quality where relevant
- include zoom/reflow and reduced-motion checks when the interface depends on them
Best practices
- Start with the user task and failing surface, not the rule number.
- Treat automated tools as accelerators, not as proof of accessibility completeness.
- Prefer native HTML semantics before ARIA-heavy patches.
- Keep focus behavior intentional for overlays, route changes, and async validation.
- Separate remediation packets from broader design-review or component-architecture work.
- When unsure, name the manual verification still required instead of pretending the scan is enough.