The old way of doing mobile app security - running occasional pen tests and code scans - just isn't cutting it anymore. Development teams ship updates too quickly for periodic security checks to keep up, and threats evolve faster than traditional testing cycles.
Here's the harsh reality: In 2024, over 75% of mobile apps contained at least one vulnerability, and unpatched flaws contributed to 60% of data breaches. While development teams are pushing updates multiple times per week, security testing often happens only once per release cycle - if at all.
Traditional DevSecOps for mobile apps looks like this:
The result? Critical security flaws slip through and get discovered by attackers, not security teams.
Case Study : The BOM Cryptocurrency Malware Disaster (February 2025)
A perfect example of how traditional security testing fails happened just months ago with the BOM mobile app.
What happened: Security researchers discovered a fake mobile app called BOM that successfully stole over $1.8 million in cryptocurrency from 13,000 victims. The app masqueraded as a legitimate blockchain application but was actually malware designed to steal wallet data.
How it worked: Once installed, BOM requested seemingly innocent permissions like access to photos and media files. But during runtime, the app systematically scanned device storage for private keys and mnemonic phrases from cryptocurrency wallets, then transmitted this data to external servers controlled by attackers.
Why traditional testing missed it: Static analysis would have shown a normal-looking app requesting standard Android permissions. The malicious behavior only appeared during runtime when the app actively scanned for wallet files and transmitted data to remote servers.
The impact: The attacks continued for weeks before being discovered, with millions of dollars stolen because the malicious runtime behavior was never detected during development or deployment.
Traditional security testing failed to detect this cryptocurrency theft because it only examined the app's stated permissions, not its actual runtime behavior. Corellium's MATRIX automated testing would have immediately flagged this malware during behavioral analysis. Beyond just identifying excessive permission requests, MATRIX monitors actual file system access patterns and network communications in real-time. It would have detected the app's systematic scanning of device storage for wallet files and the unauthorized transmission of sensitive data to external servers - malicious behaviors that only occur during execution, not in static code review.
Corellium's MATRIX automated testing system detects potentially dangerous iOS permissions in real-time, showing how the platform identifies apps requesting excessive access to sensitive device features
These case studies reveal a consistent pattern:
Static Analysis Blind Spots:
Periodic Testing Gaps:
Tool Integration Problems:
The solution isn't better static analysis - it's continuous runtime testing that monitors app behavior while it's actually running. This catches the behavioral patterns that static analysis can't see.
Corellium MATRIX changes the mobile DevSecOps game completely. Instead of waiting weeks for security reports or slowing down releases for manual testing, development teams can now integrate automated mobile security testing directly into their CI/CD pipelines.
How MATRIX Transforms DevSecOps
Automated Runtime Analysis: MATRIX watches apps while they're running, detecting suspicious behaviors like:
CI/CD Pipeline Integration: Security testing becomes part of every build:
Continuous Compliance Monitoring: MATRIX automatically maps findings to compliance standards:
Real-Time Threat Detection
Unlike traditional testing that happens once per release, MATRIX provides continuous monitoring:
Behavioral Analysis: Monitors app behavior patterns that indicate malicious activity Cross-Platform Testing: Simultaneously tests across multiple iOS and Android versions
Supply Chain Security: Detects malicious SDKs and third-party components Runtime Validation: Verifies security controls actually work during execution
Organizations using continuous runtime testing with MATRIX report:
75% Faster Security Testing: Automated runtime analysis eliminates manual testing bottlenecks 90% Reduction in Post-Release Vulnerabilities: Continuous monitoring catches issues before deployment 60% Faster Compliance Audits: Automated compliance mapping and evidence collection 50% Lower Security Remediation Costs: Finding vulnerabilities during development vs. production
The future of mobile DevSecOps isn't about better static analysis or more frequent manual testing. It's about continuous runtime monitoring that integrates seamlessly into development workflows.
The documented evidence is clear: BOM malware, SparkCat infiltration, and preinstalled app vulnerabilities all demonstrate that static analysis and periodic testing miss the behavioral vulnerabilities that actually get exploited.
Traditional Approach:
MATRIX Approach:
The old DevSecOps model of periodic security checkpoints doesn't work for modern mobile development. When teams are shipping multiple updates per week, security testing needs to happen continuously, not occasionally.
Corellium MATRIX makes this possible by automating runtime security testing that integrates directly into CI/CD pipelines. Instead of slowing down development, it accelerates it by catching vulnerabilities early when they're cheap to fix.
The choice is simple: continue with periodic testing and keep discovering vulnerabilities in production or adopt continuous runtime testing and catch them during development.
The threat landscape isn't waiting for security teams to catch up. Neither should your DevSecOps strategy.
Ready to transform your mobile DevSecOps workflow? Corellium MATRIX provides automated runtime security testing that integrates seamlessly into your CI/CD pipeline. No more manual bottlenecks, no more post-release surprises - just continuous security at the speed of development. Request a free trial of Corellium Viper with MATRIX today to learn more.