Runtime Application Self-ProtectionThe security gap AI code generators don't tell you about

Your AI-Built App Ships With Zero Runtime Protection

Cursor, Bolt, Lovable, and every AI code generator produce functional apps. None of them produce secure ones. The binary they output has no tamper detection, no hook protection, and no runtime defense. AppInstinct RASP adds the security layer that AI-generated code will never include on its own.

73%

of mobile apps have at least one critical vulnerability

OWASP MASVS 2024

2.8B

mobile malware attacks detected in 2024

Threat Intelligence Report

<1ms

RASP detection and response latency at runtime

AppInstinct Benchmark

AI-Generated Apps

AI Writes the Code. It Does Not Secure It.

Every AI code generator ships your app with the same security posture: none. The output is functional, fast, and completely unprotected at runtime. AppInstinct closes that gap.

CursorBoltLovableReplitGitHub Copilotv0+ every other AI code tool

No tamper detection

AI-generated code has no mechanism to detect whether the binary has been modified after compilation. An attacker can patch the APK and redistribute it with no resistance.

No hook protection

Functions generated by AI tools are fully hookable by Frida and Xposed. Authentication checks, license validation, and payment flows can be intercepted and overridden at runtime.

No environment checks

AI-generated apps run identically on a production device and a rooted emulator farm. There is no detection of debuggers, emulators, or instrumentation frameworks.

Hardcoded secrets in plain sight

AI tools routinely embed API keys, tokens, and configuration values as string literals in the binary. Any attacker with jadx can extract them in under a minute.

AppInstinct RASP closes every one of these gaps — single SDK, zero code changes.

Add RASP to your AI-generated app

Threat Landscape

The Attack Surface Has Never Been Larger

Modern mobile apps face adversaries with sophisticated toolchains. Static analysis, dynamic instrumentation, and binary manipulation are no longer nation-state capabilities. They are commodity tools available to anyone.

Reverse Engineering

Critical

Attackers decompile APK and IPA binaries using tools like jadx, Ghidra, or Hopper to extract business logic, API keys, and cryptographic material.

Runtime Tampering

Critical

Memory patching and method swizzling alter app behavior at execution time, bypassing authentication flows and license checks.

Hook Injection (Frida/Xposed)

High

Dynamic instrumentation frameworks intercept function calls and modify return values in real time, giving attackers full control over app logic.

SSL Pinning Bypass

High

Certificate pinning is defeated via runtime hooks, exposing encrypted API traffic to man-in-the-middle interception.

Emulator and Root Evasion

High

Automated bots run apps in emulated or rooted environments to abuse business logic at scale, often undetected.

Credential Harvesting

High

Overlay attacks and accessibility service abuse extract credentials directly from the UI layer without touching the network.

Technology

Protection That Lives Inside the App

RASP is not a perimeter control. It is an instrumentation layer embedded within the application binary itself, active at runtime, invisible to the user, and impossible to bypass from outside.

Unlike WAFs, MDMs, or network proxies, RASP operates at the execution layer. It has full visibility into the app's runtime state, memory, and call stack, and can terminate malicious operations before they complete.

WAF

Inspects HTTP traffic only, blind to in-app execution

MDM

Manages device enrollment, cannot inspect app internals

Obfuscation

Raises the cost of reverse engineering but does not prevent it

RASP

Monitors and enforces at the execution layer, in-app and always-on

App Runtime Stack

Business Logic

Your application code

App Code

SDK and framework layer

RASP Layer

AppInstinct instrumentation, active monitoring and enforcement

ACTIVE

Runtime

ART / JavaScriptCore / Swift runtime

Operating System

iOS / Android kernel

Why Mobile is Different

Mobile Apps Operate in Hostile Territory

Enterprise security models were designed for controlled environments. Mobile apps run in the wild, on devices you don't own, networks you can't trust, and operating systems that can be modified.

3.9B

Android devices, many running modified OS builds

No Controlled Environment

Apps execute on jailbroken iPhones, rooted Android devices, and third-party app stores outside your MDM perimeter. You cannot control the runtime environment, so you have to secure the app itself.

0

network perimeter controls apply when the app is offline

No Network Perimeter

Mobile apps operate offline, on untrusted Wi-Fi, and behind VPNs you don't control. Network-layer defenses like WAFs and IDS are blind to on-device attacks that never touch your infrastructure.

100%

of APK and IPA binaries are publicly downloadable

Binary Is Exposed by Design

Anyone can download your APK from Google Play or your IPA from a device backup. The binary is the attack surface. Without in-app protection, your code, keys, and logic are fully inspectable.

Capabilities

What AppInstinct RASP Protects Against

A comprehensive runtime defense stack covering the full OWASP MASVS Level 2 control set, deployed as a single SDK integration with zero code changes required.

Anti-Tampering

Detects binary modifications, code injection, and unauthorized patches at runtime via integrity hash verification.

Anti-Debugging

Identifies ptrace attachment, LLDB and GDB sessions, and debugger presence through multiple detection vectors.

Root and Jailbreak Detection

Multi-signal detection covering su binaries, Cydia, Magisk, and custom kernel indicators, resistant to bypass attempts.

Emulator Detection

Identifies execution in Android emulators, iOS simulators, and virtualized environments used for automated abuse.

Hook Detection

Detects Frida, Xposed, Substrate, and other dynamic instrumentation frameworks via memory and syscall analysis.

SSL Pinning Enforcement

Runtime enforcement of certificate pinning that cannot be bypassed by hook-based attacks targeting the TLS stack.

Code Obfuscation

Symbol renaming, control flow flattening, and string encryption applied at build time to raise reverse engineering cost.

Integrity Verification

Continuous runtime verification of code segments, resource files, and signing certificates against known-good baselines.

Behavioral Anomaly Detection

ML-based runtime behavioral analysis that flags deviations from normal execution patterns indicative of active exploitation.

Compliance and Trust

Built for Enterprise Security Standards

OWASP MASVS L2

Full control coverage

PCI-DSS

Mobile app requirements

NIST SP 800-163

App vetting standard

iOS + Android

Native SDK support

< 4 hours

Average integration time

0

Code changes required

Trusted by security teams at

Financial Services
Healthcare
E-Commerce
Government
Fintech

Security Assessment

Protect Your App Before It Gets Exploited

Every day your app runs without RASP is a day attackers have unrestricted access to your binary. Schedule a technical assessment with our security engineering team and find out exactly where you stand.

Average time from APK download to first exploitation attempt: 72 hours.

Request a Security Assessment