Avocado vs. ARMO

Mitigate lateral movement and safeguard against data breaches with Avocado’s groundbreaking agentless, application-native security solution that delivers unparalleled visibility. This security architecture prioritizes both simplicity and scalability, utilizing runtime policies and pico-segmentation to protect applications with precision. By creating finely-tuned perimeters around subprocesses, it effectively addresses threats at their most detailed level. The solution integrates runtime controls seamlessly into application subprocesses, enabling self-learning mechanisms for threat detection and automated responses, irrespective of the programming language or system architecture employed. Moreover, it automatically shields against internal attacks without necessitating manual intervention, ensuring a low incidence of false positives. Unlike traditional agent-based detection methods that depend on signatures, memory, and behavioral analysis, which struggle with broad attack surfaces and ongoing lateral threats, Avocado’s approach offers a more robust defense. Without a fundamental transformation in attack detection methodologies, vulnerabilities, including zero-day exploits and configuration flaws, will continue to go unchecked. Thus, adopting an advanced, proactive security model is crucial for sustaining effective defenses in the intricate digital landscape we navigate today. Embracing innovative technologies can empower organizations to stay ahead of emerging threats.

ARMO provides extensive security solutions for on-premises workloads and sensitive information. Our cutting-edge technology, which is awaiting patent approval, offers robust protection against breaches while reducing security overhead across diverse environments like cloud-native, hybrid, and legacy systems. Each microservice is individually secured by ARMO through the development of a unique cryptographic code DNA-based identity, which evaluates the specific code signature of every application to create a customized and secure identity for each instance. To prevent hacking attempts, we establish and maintain trusted security anchors within the protected software memory throughout the application's execution lifecycle. Additionally, our advanced stealth coding technology effectively obstructs reverse engineering attempts aimed at the protection code, ensuring that sensitive information and encryption keys remain secure during active use. Consequently, our encryption keys are completely hidden, making them resistant to theft and instilling confidence in our users about their data security. This comprehensive approach not only enhances security but also builds a reliable framework for protecting vital assets in a rapidly evolving digital landscape.