System-aware
Methods reflect topology, resource limits, uncertainty and interactions between communication, computation and control.
Technology
We combine optimization, distributed AI and adaptive decision-making with a system-level view of real operational constraints.
Communication networks
We develop AI-native methods for terrestrial and non-terrestrial communication infrastructures, with emphasis on systems where topology, connectivity, computing resources and service requirements evolve over time.
Our work combines optimization, learning and distributed intelligence for network control, resource and workload orchestration, adaptive operation and communication-computation coordination. The objective is scalable and robust decision-making under heterogeneous resources, delayed information and changing operating conditions.
IoT & connected systems
We develop applied AI methods for environments where sensing, communication, computation and operational decisions interact, and where system data must lead to timely and economically useful actions.
Our work combines forecasting, data-efficient learning, optimization and agentic decision support to improve resource allocation, operational planning and adaptive responses under uncertainty. We focus on methods that translate heterogeneous operational data into measurable improvements in performance, efficiency and business value.
Core expertise
Engineering principles
Our technical work is shaped by the interaction between algorithms, data, infrastructure and operational requirements.
Methods reflect topology, resource limits, uncertainty and interactions between communication, computation and control.
Decisions can respond to changing state, workloads, connectivity and application requirements.
Performance is assessed against explicit objectives such as efficiency, latency, reliability and operational value.
Collaboration
We work on technically demanding problems where AI and optimization must operate within real system constraints.