Is there an up-to-date guide for the latest in passing PI?

The question of Passing Play Integrity (often referred to as SafetyNet or PI) is a constantly evolving challenge in the Android modification community. With the transition from the legacy SafetyNet Attestation to the modern Play Integrity API, the requirements for a passing verdict have become significantly stricter. As device integrity checks move from simple hardware attestations to deep software environment verification, the need for a reliable, up-to-date guide is paramount. We understand the frustration of users who, after rooting their devices, find that critical applications like banking apps, Google Pay, and RCS messaging via Google Messages no longer function. This comprehensive guide addresses the current state of Play Integrity bypass, the mechanisms behind the verdict, and the practical steps required to achieve a passing PI (Play Integrity) status on a rooted device.

Understanding the Shift: SafetyNet Attestation to Play Integrity API

For years, the primary hurdle for rooted users was SafetyNet Attestation. This legacy system checked for two main states: ctsProfileMatch (device integrity) and basicIntegrity (software integrity). While effective, it was eventually superseded by the more robust Play Integrity API. Google mandated this transition for all apps targeting recent Android versions, making the old methods largely obsolete.

The Play Integrity API issues three distinct verdicts that determine whether your device is trusted:

1. MEETS_DEVICE_INTEGRITY: This verdict confirms the device is genuine, unmodified, and running the official Android operating system.
2. MEETS_BASIC_INTEGRITY: This indicates the device is likely unmodified, even if it doesn’t pass strict hardware checks (often seen on older or non-Google certified devices).
3. MEETS_VIRTUAL_INTEGRITY: This is specifically for Android Virtual Devices (AVDs) running on local development machines.

For the average rooted user, the primary goal is to achieve a MEETS_DEVICE_INTEGRITY verdict. Without this, applications that rely on Google Play Services for security will detect the modified system environment and refuse to function. This is particularly crucial for Rich Communication Services (RCS), which relies on a trusted device state to verify user identity and enable secure messaging features.

The Core Components of a Passing Play Integrity Verdict

Achieving a passing verdict requires a multi-layered approach. It is no longer sufficient to simply hide root from the Magisk app. Google’s integrity checks now scrutinize the device’s software and hardware chain of trust. The following components are critical in the current landscape.

Magisk and Systemless Root

Magisk remains the standard for rooting modern Android devices due to its systemless nature. Unlike traditional root methods (like SuperSU), Magisk does not directly modify the system partition. Instead, it overlays changes in a boot image partition. However, even with a systemless approach, the presence of the su binary and the Magisk daemon can be detected by advanced integrity checks.

The “Zygisk” feature introduced in recent versions of Magisk is a critical component for Play Integrity bypass. Zygisk operates within the Android runtime (ART) and allows for module injection before system processes start. This enables specific modules to intercept and modify system calls in real-time, effectively masking the signs of root from the Play Integrity API.

The Role of the Trusted Execution Environment (TEE)

Historically, bypassing SafetyNet relied heavily on patching the build.prop file to emulate a certified device. While this is still a necessary step, Play Integrity relies on the Trusted Execution Environment (TEE) or StrongBox (if available) to verify the device’s integrity. The TEE is a secure area of the main processor that runs a separate, isolated operating system.

When an app requests a Play Integrity check, the TEE performs a cryptographic check to ensure the device firmware hasn’t been tampered with. If the TEE detects that the bootloader is unlocked or the system partition has been modified, it flags the device. Consequently, modern bypass techniques must interact with or spoof the responses from the TEE, which is significantly more complex than editing text files.

The Current Landscape of Play Integrity Bypass Modules

The “best practices” mentioned in the user’s prompt refer to the specific modules and configurations currently dominating the community. As of late 2024 and moving into 2025, the landscape has stabilized around a few key Magisk modules designed to bypass Play Integrity detection.

Play Integrity Fix (PIF)

The Play Integrity Fix module (originally by chiteroman) remains a cornerstone of the bypass strategy. This module works by replacing the device’s fingerprint with one from a certified, stock device. However, it has evolved beyond simple fingerprint injection.

• Dynamic Fingerprint Selection: The module now utilizes a dynamic approach, fetching valid fingerprints for specific device models. This ensures that the build.prop values match the hardware attestation data sent to Google’s servers.
• Key Attestation Spoofing: Advanced versions of PIF attempt to handle the hardware-backed key attestation. This involves ensuring that the keys generated by the device appear to be rooted in the hardware trust chain, a requirement for the MEETS_DEVICE_INTEGRITY verdict.

TrickyStore

TrickyStore is a newer, highly specialized module that targets the security backend of the device. It interacts with the Android KeyStore and the Play Integrity API directly.

• Targeting the Security Patch: TrickyStore often requires a specific “Security Patch Level” date to be set in the build.prop. This date must be current enough to satisfy Google’s security requirements but often needs to match the date of the fingerprint being used.
• Hardware Attestation Handling: Unlike older modules, TrickyStore attempts to manage the hardware-backed attestation process more directly, making it a vital companion to Play Integrity Fix for users requiring the highest level of integrity (Device Integrity).

Magisk Delta and Kitsune Mask

While standard Magisk is the foundation, forks like Magisk Delta or Kitsune Mask have gained popularity for their enhanced hiding capabilities. These versions often include more aggressive root hiding mechanisms built directly into the core, offering better protection against apps that check for the Magisk app package or specific mount points. For users struggling to pass PI, switching to one of these forks has become a common “last resort” tactic.

Step-by-Step Guide to Passing Play Integrity

To achieve a passing verdict for RCS and other sensitive apps, we recommend a structured approach. The following steps represent the current industry standard for configuring a rooted device.

1. Prepare the Bootloader and System

Before installing modules, the foundation must be correct.

• Bootloader Unlock: Essential for rooting.
• Keep Verity and Verity disabled: When patching the boot image with Magisk, ensure vbmeta partitions are flashed with --disable-verity --disable-verification. This prevents the OS from checking for system modifications at boot, though it does not bypass Play Integrity on its own.
• Stock ROM Recommendation: Using a Custom ROM (like LineageOS) usually makes passing PI significantly harder due to the lack of Google certification. It is highly recommended to use a Stock ROM (preferably the latest version available for your device) with a patched boot image for the highest chance of success.

2. Install Essential Magisk Modules

Once Magisk is installed and active, install the following modules via the Magisk app or the Magisk Module Repository. Note that module availability and versions change rapidly; always verify the version compatibility with your Android version.

• Play Integrity Fix: Install the latest version available. Ensure you follow the module’s specific instructions regarding the pif.json configuration file. Some versions require you to manually edit this file to match your device model, while others generate it automatically.
• TrickyStore: Install this alongside Play Integrity Fix. It requires a valid keystore file to function correctly. The module usually comes with a default keystore, but for optimal results, users often generate a unique one.
• Zygisk Next (Optional): If using standard Magisk, Zygisk Next can offer improved injection stability over the built-in Zygisk implementation.

3. Configuration and Fingerprint Selection

This is the most critical step where users often fail. You cannot use a random fingerprint; it must be valid.

• Generating a Fingerprint: You need a valid ro.build.fingerprint and ro.build.version.security_patch from a stock device that matches your architecture (ARM64) and Android version.
• Using the PIF.json File: The Play Integrity Fix module relies on the pif.json file located in /data/adb/pif.json. You must populate this file with the correct values.
  • Model: (e.g., “Pixel 8 Pro”)
  • Manufacturer: (e.g., “Google”)
  • Fingerprint: (The long string unique to the device build)
  • Security Patch: (Must be recent, typically within the last few months)
• Avoiding Generic Fingerprints: Do not use fingerprints from devices that are known to be compromised or are too old. The Play Integrity API blacklist certain fingerprints. Community resources (like GitHub repositories associated with the modules) often maintain lists of currently working fingerprints.

4. Hiding Magisk and Shamando

Magisk provides built-in hiding, but it must be configured correctly.

• Hide the Magisk App: Rename the Magisk app package to something random (e.g., via Settings -> Hide the Magisk app). This prevents apps from detecting the Magisk manager.
• Enforce DenyList: Ensure the DenyList (formerly MagiskHide) is enabled for all sensitive apps, including Google Play Services, Google Play Store, Google Messages, and your banking apps.
• Shamando (Shamiko): While not required for PI bypass, Shamiko is a powerful module that runs alongside Magisk to provide advanced hiding capabilities. It hides the Magisk mount points more effectively, which can help with stubborn apps that check for file system anomalies rather than just root presence.

5. Clearing Data and Rebooting

After installing and configuring modules:

1. Reboot the device immediately.
2. Clear Cache/Data: Go to Settings > Apps > Google Play Services and clear the storage cache (do not clear data unless necessary, as it will reset your Google account settings). Do the same for the Google Play Store.
3. Wipe Play Services Data: If the verdict still fails, clearing all data for Google Play Services is often the “nuclear option” to force a new integrity check.

Verifying the Bypass: How to Check Your Status

Do not rely on third-party “SafetyNet checker” apps from the Play Store, as they are often outdated and do not query the actual Play Integrity API. To verify your status accurately:

1. Use the Play Integrity API Checker (GitHub): Download the latest APK from the GitHub repository (search for “Play Integrity API Checker”). This app provides a detailed breakdown of the verdict:
   • isBasicIntegrity: True/False
   • isMeetsDeviceIntegrity: True/False
   • isMeetsStrongIntegrity: True/False (High-end devices with StrongBox)
2. Check the Logs: If the verdict fails, check the Magisk logs (/data/adb/magisk.log) and the logcat output for specific error codes. Common errors include REQUEST_FAILED or PLAY_INTEGRITY_NO_CTS_PROFILE.
3. Real-World Testing: The ultimate test is functionality. Open Google Messages and attempt to enable RCS (Chat features). If the “Chat features” option is available and status is “Connected,” the bypass is successful.

Troubleshooting Common Issues

Even with the correct modules, users may encounter persistent failures. Here are common scenarios and solutions.

RCS is Still Not Connecting

If Play Integrity passes but RCS fails, the issue may not be integrity but rather carrier provisioning or Google account caching.

• Carrier Services: Ensure the Carrier Services app is updated and enabled. Clear its cache as well.
• Google Account: Remove your Google account from the device, reboot, and add it back. This refreshes the tokens associated with your account.
• Private DNS: Disable any private DNS (like AdGuard or NextDNS) temporarily, as these can block the endpoints required for RCS negotiation.

Banking Apps Detect Root Immediately

If an app detects root even with DenyList enabled:

• Shamiko: Install the Shamiko module (requires Zygisk enabled). This provides a deeper level of hiding that prevents detection of the Magisk mount points.
• Native Detector: Some apps use native code (C/C++) to detect root. There is no universal fix for this, but modules like Native Detector (available in some repositories) attempt to patch the library calls.
• Work Profile: Consider using the Island or Shelter app to create a work profile and install the banking app there. The work profile often has separate security constraints.

The “Grey Checkmark” Issue

Sometimes, Play Integrity passes basicIntegrity but fails ctsProfileMatch (Device Integrity). This usually indicates that the hardware attestation failed.

• Fingerprint Mismatch: The fingerprint you are using does not match the hardware architecture or the device model expected by the TEE.
• Security Patch Date: The security patch date in your pif.json might be too old or too new compared to the fingerprint. Try adjusting it to a date that aligns with the release of the specific Android version used in the fingerprint.

Magisk Modules Repository and Updates

For the most reliable downloads, utilizing a trusted source like the Magisk Modules Repository is crucial. We host a vast collection of modules that are verified and categorized. When searching for Play Integrity Fix or TrickyStore, always look for the most recent update date.

• Why Repository Matters: Official module repositories ensure you are not downloading malicious code. Rooting exposes your device at a low level; using modules from unverified sources is a significant security risk.
• Dependency Management: Some modules depend on others. For example, Zygisk Next might be required for certain hiding modules to function. The Magisk Module Repository usually lists these dependencies clearly in the module description.

Future-Proofing Your Setup

The cat-and-mouse game between Google and the modding community will continue. To maintain a passing Play Integrity verdict in the long term:

1. Monitor Updates: Google updates the Play Integrity API roughly every month. Consequently, the “working” fingerprints will expire. You must update your pif.json file regularly.
2. Avoid Updating System Apps Blindly: Updating Google Play Services or Google Play Store can sometimes introduce new detection methods. Wait for community feedback before updating these core components on a rooted device.
3. Keep Magisk Updated: The Magisk team frequently patches detection vectors. Always update to the latest stable canary build if you are facing issues, but be prepared for potential module incompatibilities.

Conclusion

Yes, there is an up-to-date method for passing Play Integrity, and it relies on a combination of Magisk, Play Integrity Fix, and TrickyStore. The days of simple root hiding are gone; modern bypassing requires careful configuration of hardware attestation parameters and dynamic fingerprinting. By following the steps outlined in this guide—specifically focusing on the correct pif.json configuration and utilizing the Magisk Module Repository for safe module installation—users can successfully restore RCS functionality and access banking applications on their rooted devices. As always, the landscape evolves rapidly, so staying engaged with the community and monitoring module updates is the key to maintaining a passing verdict.