
Discover how Windows-enhanced security settings on Surface devices reduce organizational security risks by 60% in hybrid workplaces, leveraging Microsoft's holistic ecosystem from chip to cloud.

Explore hardware-enforced secure boot and measured boot with Project Cerberus, a cryptographic microcontroller enhancing firmware security for cloud platforms and data centers.

Explore Intel's firmware security technologies, including Converged Security, Boot Guard, and Trusted Execution, with insights on implementation and platform protection mechanisms.

Automated firmware analysis for IoT and OT devices using EMBA, an open-source tool that detects vulnerabilities, identifies exploits, and supports penetration testing of embedded systems.

Comprehensive security architecture for critical infrastructure, addressing nation-state cyber threats. Covers hardware roots of trust, secure boot, and integrity measures across various systems and networks.

Explore firmware vulnerabilities in critical infrastructure using open-source tools. Learn techniques for deep security analysis, uncovering risks, and leveraging AI to simplify research and reverse engineering.

Dissect Secure Boot's third-party attack surface, exploring vulnerabilities and potential exploits in boot processes.

Implement UEFI Secure Boot in production using Yocto Project. Learn analysis, integration, and maintenance processes for this critical functionality in ongoing projects.

Explore UEFI Secure Boot implementation in OpenStack environments, covering benefits for virtual workloads, image compatibility, and configuration methods for bare metal deployments using Ironic.

Delve into the discovery of RingHopper, a critical UEFI vulnerability affecting billions of devices, exploring exploitation techniques and elevation methods across Windows and Linux systems.

Explore a secure toolchain for verifiable workloads using signed OCI images, ensuring tamper-proof boot processes and authenticated communication with hosts.

Explore Linux keyrings, trust models, and key management in firmware, kernel, and user space. Learn about trust domains, scope, usage constraints, and security implications for different systems.

Explore IoT security challenges and solutions with the Security & Privacy Development Lifecycle framework, addressing ecosystem complexities, privacy concerns, and compliance issues in rapidly evolving IoT landscapes.

Explore a new Canonical Event Log structure for IMA, enhancing Linux system attestation with algorithm agility, sequence numbering, and optimized storage for improved security and efficiency.

Learn how to replace vulnerable UEFI firmware with NERF, an open-source system using a tiny Linux kernel and initramfs, enhancing security and reducing exploit risks in PC and laptop firmware.

Explore OpenPOWER's flexible key management for Linux-based secure boot, covering architecture, ownership, updates, storage, and compatibility across firmware, kernel, and userspace.

Learn essential strategies and best practices for developing secure IoT devices, focusing on key vulnerabilities and effective mitigation techniques.

Explore SBAT revocation mechanisms at the distribution level, focusing on leveraging and managing these systems for enhanced security and efficiency.

Reverse engineering MediaTek's audio DSP firmware reveals vulnerabilities in RTOS and Android HAL, potentially enabling local privilege escalation and eavesdropping on user conversations.

Explore firmware security fundamentals, vulnerabilities, and protection strategies in embedded systems with expert insights and practical examples.

Exploring Unisoc baseband security: reverse-engineering and fuzzing LTE protocol stack to uncover vulnerabilities in budget smartphone chipsets, disrupting radio communication.