University of Southampton and Minima to Pioneer World First Blockchain-on-Chip for Commercial Drone Industry in collaboration with Siemens and Arm

The University of Southampton and Minima have officially launched a major development project in collaboration with global engineering leader Siemens and Arm, the world’s most pervasive compute platform. This initiative will create the world’s first deployment of a fully decentralized blockchain protocol embedded directly onto drone hardware, creating a tamper-proof, autonomous aerial network built for real-world environmental, industrial, and regulatory challenges.

Run through the University’s School of Electronics and Computer Science, this group design project brings together student engineers and leading global technologists to address urgent challenges facing the rapidly growing drone sector. By 2030, the commercial drone market is expected to exceed $60 billion, with growing demand across high-impact domains such as medical delivery, precision agriculture, infrastructure inspection, emergency response, and environmental monitoring.

While the project’s initial focus is on drones, the underlying chain-on-chip architecture has transformative potential far beyond the skies. Applications in autonomous vehicles, robotics, industrial IoT, and smart manufacturing stand to benefit. Anywhere machines must operate independently, verify their actions, and coordinate securely without relying on centralized infrastructure. By embedding trust at the silicon level, this collaboration lays the foundation for a new class of intelligent, self-verifying systems across land, air, and industry.

Dr Ivan Ling, the lead supervisor of the project commented, “This collaboration is an incredible opportunity for our students to work hands-on with some of the most exciting technologies shaping the future, such as blockchain, chip design, and drones. Together with Minima’s engineering team, our students will design a hardware accelerator system that makes Minima blockchain operations faster and more energy efficient. It’s a perfect fit with our research group’s mission to build sustainable electronic technologies.”

The core innovation lies in integrating Minima’s ultra-light Layer 1 blockchain directly onto Drone flight controllers. Each drone in the system will run a full Minima node, enabling tamper-proof logging of telemetry, sensor data, and mission history. With no need for cloud infrastructure or external validators, these drones become self-sovereign, verifiable machines operating securely even in challenging or disconnected environments.

The additional integration of Integritas, Minima’s data attestation and verification tool, provides easy timestamping and on-device validation of data that meets ASTM and EASA standards. Combined with a decentralized mesh coordination model, drones can self-organize, execute missions, and log their activity in real time, offering an unparalleled level of trust and resilience.

Hugo Feiler, CEO of Minima, commented, “This project puts Minima’s core vision into action. By embedding blockchain at the chip level, we enable autonomous systems that can prove their actions and data without needing permission from any central authority. It’s a foundation for the future of machines that need to be trusted by design..”

This initiative, developed under the Semiconductor Education Alliance, is supported by Siemens Cre8Ventures through its Higher Education Program, and by Arm® Flexible Access and Arm® Academic Access, which provide streamlined access to advanced Arm technology, tools, and training. Minima participates via Arm Flexible Access, while the University of Southampton engages through Arm Academic Access. Together, these partnerships provide students and researchers with access to state-of-the-art Siemens EDA design flows and secure Arm compute platforms, accelerating hardware innovation in real-world applications.

The project aims to deliver a validated proof-of-concept by Q1 2026, with prototypes reviewed by a panel of leading drone and aerospace experts. The resulting design will serve as a trusted reference architecture for OEMs developing next-generation, security-enhanced flight systems for sectors including infrastructure inspection, environmental monitoring, and public safety.

Neil Parris, Director of Partner Success and Business Models, Arm: “Arm Flexible Access enables innovation by lowering barriers to hardware experimentation. Embedding blockchain at the chip level alongside emerging AI capabilities is a bold step that demands both flexibility and trust by design. Through Arm Flexible Access, innovators can access Arm’s compute platform to prototype faster, validate in real environments, and advance the frontier of autonomous and AI-driven systems.”

Carson Bradbury, Director Siemens Cre8Ventures: “This initiative represents a bold step toward building trust directly into machines at the edge. By combining embedded blockchain with digital twin technologies, we are setting the standard for secure, verifiable autonomy in aerospace and industrial systems. This collaboration with Minima allows us to accelerate the path from research to real-world deployment.”

Professor Harold Chong, Head of Sustainable Electronic Technologies Group, commented, “Minima is leveraging their expertise in the convergence of embedded hardware and software to create a decentralized, fully autonomous system that is both efficient in decision making and secure, translating into a better user experience. This collaborative Group Design Project with Minima is a perfect example of our partnership with Siemens Cre8Ventures Open Higher Education Program, and it will stimulate future research opportunities.”

This pioneering work positions the University of Southampton as a leader in embedded blockchain research and industrial automation. By bringing together global technology brands and emerging decentralized infrastructure, the project sets a new benchmark for trustworthy machine intelligence at the edge.