Tech Deep Dive: RunSafe Security’s Protect Solution

Read the white paper to learn how RunSafe’s Protect solution disrupts memory exploitation by varying the layout of code.

Fighter Jet Illustration

In the white paper you will learn:

  • What memory corruption vulnerabilities are, how they occur, and examples of attacks
  • An overview of advanced techniques like RASP, MTD, and Load-time Function Randomization (LFR)
  • Use cases for RunSafe Protect and benefits for software security
  • A technical overview of RunSafe Protect and how to implement it at your organization
RunSafe Protect prevents attacks introduced through vulnerabilities in a device’s software supply chain, including memory corruption-based zero day targeting 86 CWEs.

Addressing Memory Corruption Attacks

Memory corruption attacks allow cybercriminals to gain unauthorized access to your company’s data and systems by altering a program’s memory. These attacks often avoid suspicion and are incredibly difficult to detect.

Every year, memory vulnerabilities appear on MITRE’s CWE Top 25 Most Dangerous Software Weaknesses list. Additionally, CISA has released guidance on the urgent need for memory safety in software products to eliminate this class of vulnerability.

RunSafe Protect obstructs how attackers operate.

Deploy RunSafe’s Patented Code Protection

RunSafe hardens your software against memory corruption errors and buffer overflow exploits, preventing attacks. RunSafe’s Protect solution uses advanced and Runtime Application Self Protection (RASP) and Moving Target Defense (MTD) techniques to harden your software beyond what is possible with other mitigations.

Learn how our patented Load-time Function Randomization (LFR) techniques can be deployed to defend your code.

Are you leaving your embedded software exposed to attack?