Palitronica today announced the appointment of a new chief executive officer, along with a bench of experienced leaders, aligned across all functions of the organization. These changes follow milestone growth as the company positions for the next phase of market expansion and technical innovation.

Palitronica Inc., the Canadian innovator in physics-based hardware/firmware cybersecurity and quality assurance for safety-critical manufacturing and defense infrastructure, today announced the successful closing of its Series A financing round led by the Business Development Bank of Canada (BDC)’s Industrial Innovation Venture Fund, with participation from Three Kings Capital, Frostbite, and Unpopular Ventures.

Palitronica announced its work with Bell Textron Inc. to provide state-of-the-art cyber assurance to critical electronics for the Bell MV-75 Cheyenne II, formerly known as the U.S. Army’s Future Long-Range Assault Aircraft (FLRAA) program.

Invalid commands can reveal what firmware does beyond its visible response. Learn how PowerFuzzer uses command-response-power evidence to detect hidden commands, firmware drift, undocumented functionality, and potential backdoors in black-box embedded systems.

By combining AI-powered fuzzing with power side-channel analysis, PowerFuzzer detects undocumented functionality, hidden behaviour, firmware changes, and potential backdoors without requiring source code access. It supports the assessment of embedded systems across aerospace, automotive, industrial, security, networking, and critical infrastructure applications.

Defence organizations are turning to commercial innovation not simply because it is less expensive, but because it offers access to the speed, scale, and technological agility required to maintain operational advantage in an increasingly dynamic security environment. But the same supply chains that enable rapid innovation also create new vulnerabilities.

In this webcast, Sebastian Fischmeister explains the technology behind PowerFuzzer and how it combines AI-powered fuzzing with power side-channel analysis to assess firmware without requiring source code access.

The rapid expansion of autonomous systems is often framed as a question of scale. Production volumes are increasing, deployment scenarios are diversifying, and demand across defence, infrastructure, and commercial sectors continues to accelerate. For manufacturers, however, the more consequential shift is not scale itself, but how these systems are being built.

Presented at IPC Apex 2026, our poster offers a practical step toward deploying physics-based, black-box verification methods in production, not just controlled lab settings.

In this webinar, join Sebastian Fischmeister, pioneer in electronics integrity defense, and Seth Lloyd, Defense contractor advisor and U.S. Naval aviator, as they discuss the risks associated with COTS drones, and explore ways to secure rapid-delivery manufacturing.

Modern government electronics supply chains are global by necessity. Semiconductors, printed circuit boards, subassemblies, firmware, and final system integration routinely cross multiple borders and involve layers of suppliers that are difficult to fully map or control. While domestic manufacturing capacity remains strategically important, no government can realistically own or internalize every element of the electronics supply chain without unacceptable cost, delay, or cap

What is Sovereign Sustainability? Sovereign sustainability for critical infrastructure refers to a country’s ability to design, operate, maintain, and renew essential systems over the long term without losing control to external actors. It combines sovereignty, meaning decision-making authority and strategic autonomy, with sustainability, meaning durability across decades in financial, technical, environmental, and human terms. The core idea is not self-sufficiency in everyth

Manufacturers face increasing risk from hidden defects, undocumented substitutions, and supplier process drift. Anvil Checkpoint addresses these challenges using physics-based RF measurements combined with AI, accessed through standard ports.

Anvil Checkpoint is a non-destructive electronics verification platform that detects internal differences in electronic hardware early, efficiently, and without assumptions. Using physics-based RF measurements and AI, Anvil establishes a known-good signature of a device and flags any deviation, even when designs, documentation, or firmware are unavailable.

Silent supplier changes, hidden defects, and undocumented software drift are some of the biggest causes of field failures and RMAs in scaled drone programs. The Anvil Checkpoint gives drone manufacturers an objective way to verify whether received COTS electronics are truly equivalent to what was previously qualified.

Supply chain attacks are increasing across the global electronics industry. Palitronica, a Canadian technology company born from research at the University of Waterloo, is responding with a focused innovation strategy aimed at protecting critical sectors such as automotive, aerospace, and defence.

We’re honoured to receive first place in the Cluster Inspection & Quality category. This recognition reflects our drive to push the boundaries of hardware cybersecurity and manufacturing integrity.

Anvil Checkpoint uses a non-invasive method to verify the integrity of electronic devices. By injecting a low-power RF signal into the target and analyzing the reflections.

In this presentation, Co-Founder and CTO Carlos Moreno explains the physics behind the technology—likening it to “shouting into a cave and listening to the echo”.

Palitronica collaborates with Continental AG to enhance hardware assurance and cybersecurity resilience through Anvil Checkpoint...