Testing Android WebViews and Hybrid Apps with Claude Code and MCP

Testing embedded WebViews, hybrid application architectures, and native-to-web bridge protocols on physical Android devices represents one of the most stubborn and fragile bottlenecks in modern software quality assurance. Mobile development teams frequently combine native Android shells—built in Kotlin, Jetpack Compose, or Java—with embedded HTML5 rendering engines to deliver dynamic e-commerce checkout flows, customer onboarding funnels, third-party authentication screens, embedded documentation viewers, and cross-platform views powered by frameworks like Capacitor, Ionic, and Cordova. While this hybrid architectural model grants engineering teams incredible agility by allowing web teams to deploy continuous frontend updates without submitting new binary releases to Google Play, it introduces a severe testing dilemma. Traditional mobile UI test automation frameworks like AndroidX UIAutomator, Espresso, and Appium struggle when navigating hybrid view hierarchies: they either treat the entire WebView container as an opaque black box devoid of interactive child nodes, or they crash due to brittle ChromeDriver version mismatches with the device's underlying Android System WebView package. By pairing Anthropic's terminal-based autonomous coding agent Claude Code with the Model Context Protocol (MCP) through ScreenSync MCP, developers can eliminate this testing barrier. ScreenSync MCP bridges physical Android hardware with a comprehensive 226-tool verification plane, combining non-invasive MediaProjection screen mirroring, ADB-driven device controls, Chrome DevTools Protocol port forwarding, and 197 browser tools to inspect, automate, and triage native WebViews with unprecedented precision.

Key Takeaways

• Hybrid container transparency: ScreenSync MCP enables Claude Code to pierce opaque android.webkit.WebView containers, evaluating both native view hierarchy nodes and internal DOM trees within a unified testing session.
• Dual inspection plane: By combining Android's native MediaProjection API for low-latency visual verification with Chrome DevTools Protocol (CDP) port forwarding via ADB, agents inspect rendered CSS styles and raw DOM trees simultaneously.
• Non-invasive display mirroring: Screen frames stream directly from physical Android 7.0+ devices over local Wi-Fi or USB reverse sockets at approximately 94 milliseconds median latency, requiring zero root privileges and zero ADB screen-scraping overhead.
• JavaScript bridge assertion: Claude Code validates bidirectional communication between native Kotlin handlers and JavaScript interfaces (@JavascriptInterface), capturing console errors and message payloads directly through real-time logcat triage.
• Cross-surface 226-tool ecosystem: ScreenSync MCP unifies 29 native mobile and desktop tools (including 12 control_*, 3 os_*, and 14 capture tools) with 197 web_* browser tools, allowing AI agents to validate hybrid mobile apps alongside desktop web dashboards.
• Zero ChromeDriver friction: By leveraging native accessibility trees, optical frame verification, and direct CDP socket abstraction, engineering teams bypass brittle Appium web driver version mismatches entirely.

The Hybrid App Black Box: Why WebViews Break Traditional Mobile QA

Standard Android UI testing tools fail on WebViews because native test harnesses treat the entire embedded browser component as a single opaque leaf node. Native accessibility trees frequently flatten or discard nested HTML DOM elements, while cross-process security boundaries prevent native frameworks from inspecting internal JavaScript state.

Building enterprise mobile software often demands blending native Android performance with web flexibility. E-commerce platforms embed WebViews for localized payment gateways and promotional banners; fintech applications host regulatory terms and interactive disclosures inside web wrappers; and healthcare portals embed patient forms rendered from web microfrontends. However, verifying these hybrid user journeys has historically caused immense friction across continuous integration pipelines:

1. Accessibility Hierarchy Flattening: Android's native UIAutomator relies on the system accessibility framework (AccessibilityNodeInfo). While modern Chromium WebViews attempt to map HTML DOM elements into accessibility virtual node trees, complex web layouts (such as nested <iframe>, shadow DOM, canvas elements, or CSS flexbox containers) frequently fail to register meaningful resource IDs, content descriptions, or focus bounds. The accessibility tree often reflects the entire WebView as a single android.webkit.WebView box with zero discernible children.
2. The Appium ChromeDriver Mismatch Trap: In traditional automated QA environments, Appium inspects hybrid apps by switching execution contexts from NATIVE_APP to WEBVIEW_<package_name>. To interact with the web context, Appium launches a local instance of ChromeDriver that must match the exact major and minor version of the Android System WebView installed on the target device. In physical device testing—where devices receive automatic OTA updates from Google Play—a silent background update to Chromium instantly breaks test suites, throwing fatal SessionNotCreatedException or version incompatibility errors.
3. Cross-Process Security Sandboxes: In compliance with Android sandbox architecture, the Chromium rendering engine executes inside an isolated unprivileged renderer process (isolated_process=true). Native testing frameworks running in the application process cannot reach into renderer memory or observe network calls, DOM events, or unhandled JavaScript exceptions.
4. Context Switching Latency: Traditional test runners spend several seconds polling the operating system to detect and bind to web contexts, introducing high test flakiness and inflating CI suite execution times from minutes to hours.

Architectural Bridging: How ScreenSync MCP Unifies Native Android and DOM Telemetry

ScreenSync MCP unifies native Android and DOM telemetry by establishing decoupled visual, control, and network debugging planes. The local desktop hub ingests high-definition MediaProjection video streams, dispatches deterministic ADB hardware gestures, and connects Claude Code to Chromium DevTools sockets for deep DOM evaluation.

Understanding the mechanics of ScreenSync MCP reveals why it effortlessly circumvents the limitations of legacy test frameworks. Rather than forcing all mobile interactions through a single bloated driver layer, ScreenSync MCP establishes three clean, isolated architectural planes operating over standard local protocols:

1. The Low-Latency Visual Mirroring Plane

The ScreenSync MCP mobile application runs on physical devices powered by Android 7.0 (API level 24) or higher. Upon user consent during the session launch, the app initiates an interactive capture session using Android's native MediaProjection API. Frame buffers from the hardware display surface are encoded into low-latency video streams and transmitted directly over your local area network (LAN) to the desktop hub running on HTTP port 3000. Because this visual feed captures raw hardware frame buffers at approximately 94 milliseconds median latency, Claude Code receives an exact, uncompressed representation of what the user sees—including web animations, CSS transforms, dynamic SVGs, and responsive font adjustments—without needing root privileges or slow ADB framebuffer dumping (screencap -p).

2. The Deterministic Hardware Control Plane

While display streaming occurs non-invasively through MediaProjection, Claude Code's control tools (control_tap, control_swipe, control_type, control_key, control_open_url, control_launch_app) execute through the Android Debug Bridge (ADB) daemon. When Claude Code identifies a target button or input field inside a WebView, it translates the target's bounding box coordinates into physical screen touch coordinates, dispatching hardware input events directly through the Linux kernel input subsystem. This ensures that touch events trigger real Android touch lifecycles (ACTION_DOWN, ACTION_MOVE, ACTION_UP) rather than synthetic JavaScript event bubbles that can fail to activate complex native touch listeners.

3. The Chrome DevTools Protocol (CDP) Bridge

In modern Android applications, developers can expose the embedded Chromium engine to local debugging by enabling WebView.setWebContentsDebuggingEnabled(true) in debug builds. When this flag is active, the Android WebView instantiates a Unix domain abstract socket on the device (webview_devtools_remote_<pid>). ScreenSync MCP and Claude Code leverage ADB port forwarding to map this socket directly to a local workstation port:

adb forward tcp:9222 localabstract:webview_devtools_remote_<pid>

Once forwarded, Claude Code can query the Chrome DevTools Protocol HTTP endpoints (http://localhost:9222/json) to discover active web targets, inspect the Document Object Model (DOM), query CSS computed styles, evaluate arbitrary JavaScript expressions, and set DOM mutation breakpoints. Furthermore, ScreenSync MCP provides 197 dedicated browser tools (web_*) through its authenticated Chrome and Edge desktop extension, allowing Claude Code to correlate mobile WebView interactions with cloud-based management consoles, database backends, and server telemetry in real time.

Step-by-Step Setup: Connecting Claude Code to Android WebViews on Physical Devices

Configuring ScreenSync MCP for hybrid Android application testing requires initializing the desktop hub on Node.js 18, registering the stdio MCP server in Claude Code, connecting an Android 7.0+ physical smartphone, and configuring ADB reverse sockets for seamless local streaming.

To establish this autonomous hybrid QA testing harness on Windows, macOS, or Linux, follow this verified five-step deployment process:

Step 1: Workstation Environment Preparation

Verify that your host development workstation satisfies the core system requirements:

1. Operating System: Windows 10/11, macOS (Apple Silicon or Intel), or Linux.
2. Runtime Environment: Node.js 18 or newer installed (node -v).
3. Android Platform Tools: adb configured in your system environment PATH (adb version).
4. Physical Android Smartphone: A real device running Android 7.0 (Nougat) or newer connected to your workstation via a reliable USB data cable.
5. Target Hybrid App: A debug build of your Android application containing an embedded WebView with setWebContentsDebuggingEnabled(true).

Step 2: Launch the ScreenSync MCP Desktop Hub

Download the ScreenSync MCP desktop hub distribution from screensyncmcp.tech and extract the archive to a dedicated folder. Execute the platform-specific launcher script:

# On Windows (PowerShell or Command Prompt)
cd C:\tools\screensync-hub
.\start-hub.bat

# On macOS or Linux (Terminal)
cd ~/tools/screensync-hub
chmod +x start-hub.sh
./start-hub.sh

Upon startup, the hub initializes an HTTP server on port 3000 to receive encrypted MediaProjection display frames and prepares a Model Context Protocol server over stdio. The console output displays your session bearer token (SCREEN_SYNC_TOKEN) and generates a local QR pairing code. For complete configuration options, consult the official ScreenSync MCP setup guide.

Step 3: Register ScreenSync MCP with Claude Code

Register the desktop hub with the Claude Code CLI in your terminal:

claude mcp add screensync node "/path/to/screensync-hub/screensync-hub.js"

If you are executing tests through Claude Desktop, open your claude_desktop_config.json configuration file (accessible via Settings > Developer > Edit Config) and declare the server:

{
  "mcpServers": {
    "screensync": {
      "command": "node",
      "args": ["/path/to/screensync-hub/screensync-hub.js"],
      "env": {
        "SCREEN_SYNC_TOKEN": "your_secure_bearer_token_here"
      }
    }
  }
}

(Note: Claude Code, Claude Desktop, Cursor, and VS Code agent mode communicate via local stdio processes and are fully supported. The ChatGPT web application requires remote HTTPS endpoints and does not support local stdio MCP servers).

Step 4: Install the Android App and Authorize Capture

On your physical Android smartphone:

1. Download the free ScreenSync MCP application (com.screensync.mcp) directly from Google Play.
2. Launch the application. Allow mDNS discovery to automatically find your desktop hub on the local Wi-Fi subnet, or scan the QR code displayed in your terminal.
3. Tap Start Projection and confirm Android's native MediaProjection screen capture consent prompt.
4. Enable Developer Options (Settings > About Phone > tap Build Number 7 times) and turn on USB Debugging. If testing without cables, see our guide on Android wireless debugging for MCP servers.
5. Verify that your workstation detects the device:

   adb devices

Step 5: Enable WebView Debugging in Your Android Project

Ensure your Android project enables WebView debugging in its debug configuration. In your main Application class or main activity's onCreate() lifecycle method, include the conditional debugging flag:

package com.example.screensync.hybrid

import android.app.Application
import android.content.pm.ApplicationInfo
import android.webkit.WebView

class HybridApp : Application() {
    override fun onCreate() {
        super.onCreate()

        // Enable Chromium DevTools Protocol debugging for debuggable builds
        if (0 != (applicationInfo.flags and ApplicationInfo.FLAG_DEBUGGABLE)) {
            WebView.setWebContentsDebuggingEnabled(true)
        }
    }
}

With this line enabled, any WebView component instantiated within the app exposes its internal Blink rendering engine to ADB-forwarded DevTools clients, granting Claude Code direct programmatic access to the DOM.

Practical QA Workflows: DOM Inspection, JavaScript Bridge Testing, and OAuth Flows

Practical hybrid QA workflows validate three essential application mechanics: piercing opaque native containers to inspect dynamic DOM forms, testing bidirectional JavaScript bridge communication, and asserting seamless transitions during third-party OAuth authentication. Claude Code orchestrates ADB commands, UI hierarchy dumps, and logcat telemetry to ensure end-to-end reliability.

Workflow 1: Piercing the Opaque WebView to Assert Dynamic DOM Forms

In many enterprise apps, critical form fields (such as address validation or credit card inputs) render inside an embedded WebView. Traditional UIAutomator dumps show only a single bounding box for the entire WebView.

Developer Prompt:
"Claude, launch our hybrid app com.example.screensync.hybrid, navigate to the CheckoutScreen, identify the embedded payment form inside the WebView, fill out the billing fields, and confirm that the native 'Place Order' button becomes enabled."

Step 1: Launch Application and Detect WebView Container

Claude Code executes control_launch_app with package com.example.screensync.hybrid. Once the screen renders, Claude Code calls get_ui_hierarchy to examine the native view tree:

<node class="android.widget.FrameLayout" package="com.example.screensync.hybrid">
  <node class="android.webkit.WebView" resource-id="com.example.screensync.hybrid:id/checkout_webview" bounds="[0,210][1080,1920]">
    <!-- Native accessibility tree exposes no internal HTML input fields -->
  </node>
  <node class="android.widget.Button" resource-id="com.example.screensync.hybrid:id/btn_native_submit" enabled="false" text="Place Order" bounds="[60,1950][1020,2100]" />
</node>

Step 2: Establish Chrome DevTools Protocol Socket

Recognizing that the native tree terminates at android.webkit.WebView, Claude Code finds the application PID and forwards the abstract Unix socket via ADB:

# Query the PID of the hybrid application
PID=$(adb shell pidof com.example.screensync.hybrid)

# Forward the WebView's abstract socket to workstation port 9222
adb forward tcp:9222 localabstract:webview_devtools_remote_${PID}

# Discover the active web targets
curl -s http://localhost:9222/json

Output:

[
  {
    "description": "",
    "devtoolsFrontendUrl": "/devtools/inspector.html?ws=localhost:9222/devtools/page/D38F2B1A",
    "id": "D38F2B1A",
    "title": "Embedded Checkout",
    "type": "page",
    "url": "https://checkout.example.com/embed/v2",
    "webSocketDebuggerUrl": "ws://localhost:9222/devtools/page/D38F2B1A"
  }
]

Step 3: Inspect DOM Elements and Calculate Screen Coordinates

Claude Code queries the CDP WebSocket or executes a lightweight Node.js evaluation script to query the input bounding box within the WebView viewport:

// Querying the DOM element bounding rect inside the WebView
const rect = document.querySelector('#billing-address-line1').getBoundingClientRect();
console.log(JSON.stringify({ x: rect.left, y: rect.top, width: rect.width, height: rect.height }));

By combining the native WebView container offset (bounds="[0,210][1080,1920]") with the internal DOM bounding rect, Claude Code calculates the precise physical touch coordinates on the Android display surface.

Step 4: Dispatch Native Tap and Type Events

Claude Code invokes control_tap on the calculated coordinates, triggering native focus, and dispatches the billing text using control_type:

Claude Code invokes control_tap { x: 240, y: 550 }
Claude Code invokes control_type { text: "123 Developer Way, Suite 400" }

Step 5: Assert Visual and Native State Changes

Claude Code calls get_latest_screenshot to visually verify that the text rendered correctly inside the web input without text clipping or font rendering anomalies. It then calls get_ui_hierarchy to assert that the native btn_native_submit button transitioned to enabled="true".

Workflow 2: Testing Native-to-JavaScript Interface Bridges (@JavascriptInterface)

Modern hybrid architectures rely heavily on JavaScript bridges to allow web content to invoke native device hardware—such as opening the native camera, reading biometric keys, or querying secure device storage.

Developer Prompt:
"Claude, navigate to the LoyaltyCardScreen in our hybrid app, tap the 'Scan Loyalty QR' button inside the web document, and verify that the JavaScript bridge invokes the native QR scanner activity. Then mock a scanned result via logcat and assert that the web view updates with the scanned card token."

Understanding the Native Bridge Implementation

The Android host application registers a bridge class using addJavascriptInterface:

package com.example.screensync.hybrid.bridge

import android.content.Context
import android.webkit.JavascriptInterface
import android.widget.Toast
import org.json.JSONObject

class AndroidNativeBridge(private val context: Context, private val onScanRequest: () -> Unit) {

    @JavascriptInterface
    fun requestQrScanner(payloadJson: String) {
        val json = JSONObject(payloadJson)
        val callbackName = json.optString("callback", "onQrScanned")
        // Trigger native barcode scanning activity
        onScanRequest()
    }
}

Inside the HTML/JavaScript document running inside the WebView:

<button id="btn-scan" onclick="triggerNativeScan()">Scan Loyalty QR</button>
<div id="scan-result">Awaiting scan...</div>

<script>
  function triggerNativeScan() {
    if (window.AndroidBridge && window.AndroidBridge.requestQrScanner) {
      window.AndroidBridge.requestQrScanner(JSON.stringify({ callback: "handleScanToken" }));
    }
  }

  function handleScanToken(token) {
    document.getElementById("scan-result").innerText = "Token: " + token;
  }
</script>

Step 1: Trigger the Bridge from Claude Code

Claude Code locates the button via get_ui_hierarchy or CDP coordinate calculation and invokes control_tap.

Step 2: Validate Bridge Invocation via Logcat

Claude Code calls get_logcat with filter: "AndroidNativeBridge", asserting that the native method received the structured JSON payload:

D AndroidNativeBridge: requestQrScanner called with payload: {"callback":"handleScanToken"}
I NativeActivity: Initializing hardware camera scanner subsystem.

Step 3: Inject Mock Result and Assert Web State Mutation

To simulate the camera scanning a barcode without requiring physical test target cards in front of the lens, Claude Code evaluates the JavaScript callback directly through the CDP socket:

# Evaluate JavaScript callback inside the active WebView session
curl -s -X POST http://localhost:9222/json/eval -d '{"expression": "handleScanToken("CARD-88910-VIP")"}'

Claude Code immediately calls get_latest_screenshot to confirm that the web element #scan-result updated to display Token: CARD-88910-VIP, confirming that the bidirectional event loop completed without data loss or memory leaks. When testing cross-platform apps built on React Native, developers can also apply testing React Native and Expo apps with Claude Code and MCP to verify JavaScript execution across native view containers.

Workflow 3: Navigating Third-Party OAuth Login & WebView Redirects

Third-party authentication flows (such as Google, GitHub, or Okta SSO) frequently navigate users from native screens through external web login pages before redirecting back to the app via deep links or custom URL schemes.

Developer Prompt:
"Claude, initiate the SSO login flow, verify that the Chrome Custom Tab or WebView loads the secure authorization page, simulate user credential input, follow the OAuth redirect, and verify that the application returns to the native HomeActivity with an active session token."

Execution and Verification Sequence:

1. Initiate Login: Claude Code taps btn_sso_login using control_tap.
2. Detect Custom Tab Navigation: Claude Code calls get_ui_hierarchy to assert that Android launched a com.android.chrome Custom Tab overlay containing the target identity provider URL (https://auth.example.com/oauth/authorize).
3. Verify Security Badges: Claude Code calls get_latest_screenshot to verify that the browser navigation bar displays the SSL security padlock icon, protecting users from phishing attacks.
4. Input Credentials: Claude Code inputs credentials via control_type, accepts permissions, and taps the authorization submit button.
5. Assert Deep Link Handoff: Claude Code monitors get_logcat for deep link intent handling:

   I ActivityManager: START u0 {act=android.intent.action.VIEW dat=exampleapp://oauth/callback?code=AUTH_CODE_78912... cmp=com.example.screensync.hybrid/.HomeActivity}

6. Confirm Native Session State: Claude Code calls get_ui_hierarchy to verify that HomeActivity renders the authenticated user profile with active session indicators. For deeper strategies on handling deep links, see our complete guide on testing Android deep links and app links with Claude Code and MCP.

Triaging Hybrid Performance and Security: Console Errors, Mixed Content, and Frame Drops

Triaging hybrid performance and security requires monitoring Chromium console errors, mixed-content security violations, and GPU overdraw. Claude Code diagnoses hybrid bottlenecks by parsing real-time logcat streams, inspecting network resource waterfalls via CDP, and asserting frame rendering rates over local MediaProjection streams.

1. Diagnosing Mixed-Content Security Blocks

When an embedded WebView loaded over HTTPS attempts to load assets, stylesheets, or API resources over unencrypted HTTP, Android's Chromium engine strictly blocks the requests in accordance with modern web security standards. However, to the end user and native test runners, the failure appears silently as missing images or unresponsive buttons. Claude Code captures these security violations instantly via get_logcat:

W chromium: [WARNING:mixed_content_checker.cc(187)] Mixed Content: The page at 'https://app.example.com/checkout' was loaded over HTTPS, but requested an insecure script 'http://cdn.example.com/analytics.js'. This request has been blocked; the content must be served over HTTPS.

Claude Code detects this log warning, alerts the developer, and identifies the exact insecure script URL preventing checkout completion.

2. Triaging Uncaught JavaScript Exceptions and Promises

JavaScript syntax errors, undefined object references, and unhandled Promise rejections inside a WebView do not throw native Java/Kotlin exceptions. Unless developers implement a custom WebChromeClient.onConsoleMessage callback, these errors fail completely silently. ScreenSync MCP captures all Chromium runtime console logs through get_logcat:

E chromium: [ERROR:console.cc(143)] js: Uncaught TypeError: Cannot read properties of undefined (reading 'token')
E chromium: [ERROR:console.cc(143)] js:     at submitPayment (https://app.example.com/checkout.js:42:18)
E chromium: [ERROR:console.cc(143)] js:     at HTMLButtonElement.onclick (https://app.example.com/checkout:104:12)

Claude Code parses the stack trace, identifies line 42 of checkout.js as the source of the defect, and suggests the exact defensive JavaScript fix.

3. Triaging Hardware Acceleration and Layer Leaks

WebViews rendering complex CSS animations, 3D transforms, or full-width video elements require dedicated hardware rendering layers. If developers fail to configure hardware acceleration (android:hardwareAccelerated="true") or inadvertently nest WebViews inside scrolling native containers (such as Jetpack Compose VerticalScroll or Android ScrollView), the Chromium compositor falls back to CPU software rasterization, dropping frame rates from 60 FPS to under 15 FPS. Claude Code identifies rendering bottlenecks by running ADB gfxinfo diagnostics:

adb shell dumpsys gfxinfo com.example.screensync.hybrid framestats

When frame render times exceed 16.6 milliseconds, Claude Code flags severe jank and inspects whether the native layout hierarchy contains illegal nested scroll containers.

Production Checklist for Automated Hybrid Android QA

• [ ] Host workstation runs Node.js 18+ with Android Platform Tools adb accessible in system PATH.
• [ ] ScreenSync MCP desktop hub installed and active on local HTTP port 3000 (start-hub.bat or start-hub.sh).
• [ ] ScreenSync MCP server registered in Claude Code via claude mcp add screensync node "/path/to/screensync-hub.js".
• [ ] Free ScreenSync MCP client (version 2.5.7+) installed on physical Android 7.0+ hardware from Google Play.
• [ ] Smartphone and development machine connected to the same local Wi-Fi subnet; mDNS discovery or QR code pairing authenticated.
• [ ] MediaProjection screen capture consent granted on device for sub-100ms (~94 ms median) local visual mirroring.
• [ ] Target application debug build configured with WebView.setWebContentsDebuggingEnabled(true) in application initialization.
• [ ] Forward abstract Unix domain socket via adb forward tcp:9222 localabstract:webview_devtools_remote_<pid> for CDP inspection.
• [ ] Verify that all @JavascriptInterface bridge methods declare the @JavascriptInterface annotation to prevent runtime crashes.
• [ ] Validate that JavaScript bridge calls operate on background threads and dispatch UI changes to the main thread via runOnUiThread.
• [ ] Monitor get_logcat for chromium tags to catch mixed-content security blocks, CSP errors, and unhandled JavaScript exceptions.
• [ ] Audit hybrid frame rates using dumpsys gfxinfo to eliminate layout overdraw and ensure smooth 60 FPS scrolling.

Conclusion

Automating Android WebView and hybrid application testing with Claude Code and ScreenSync MCP bridges one of the most persistent divides in modern mobile engineering. By fusing low-latency visual mirroring via Android's native MediaProjection API, deterministic hardware touch injection through ADB, and deep Chrome DevTools Protocol DOM evaluation, engineering teams can inspect hybrid views, test bidirectional JavaScript bridges, and triage console errors without wrestling with brittle ChromeDriver version drift or opaque accessibility hierarchies. To explore how native node hierarchies complement computer vision models across the entire testing lifecycle, review our architectural guide on Android UI hierarchy vs computer vision: why LLMs need structural node trees.

ScreenSync MCP provides the ScreenSync MCP Android app, ScreenSync MCP hub, and ScreenSync MCP browser extension for development teams worldwide. Explore our comprehensive technical documentation at screensyncmcp.tech, contact our engineering group directly at [email protected], and Get it on Google Play to start automating real physical Android hardware today.