“Toward Ambient Intelligence: Osmotic Meta-Learning at the Intersection of IoT, Edge, and AI”

Abstract

As Internet of Things (IoT) devices continue to permeate our environments, they generate immense streams of real-world data that have the potential to transform how we deliver critical services—from healthcare and agriculture to transportation, smart grids, and disaster response. At the same time, advances in Artificial Intelligence, particularly Distributed Learning and Deep Learning, are unlocking new possibilities in areas like medical diagnostics, urban intelligence, and predictive analytics by learning from these rich, heterogeneous datasets.

However, a fundamental barrier persists: most deep learning models demand massive computational resources and centralized access to data—requirements typically fulfilled by cloud data centres. This centralized model often introduces latency, bandwidth constraints, and privacy challenges that are incompatible with real-time, context-aware decision-making at the edge.

In response, emerging paradigms like Osmotic Computing propose a more dynamic and adaptive distribution of intelligence—allowing computation to seamlessly flow between cloud, edge, and mobile edge environments. Yet, current approaches fall short in describing how to effectively orchestrate and scale distributed deep learning models across this complex continuum.

This keynote presents a vision for Osmotic Meta-Learning—a new class of resource- and data-aware learning algorithms designed to operate across globally distributed, heterogeneous environments. We will explore the following:

  1. The foundational concepts behind Osmotic Computing and its relevance to the future of ambient intelligence.
  2. Key research and programming challenges in building and coordinating distributed learning workflows that adapt to resource variability and data locality.
  3. A novel approach for training distributed deep learning models on thousands of mid-scale IoT and edge devices worldwide—circumventing the need for traditional GPU-heavy cloud infrastructures.
  4. Initial results from our deployment on the UK’s largest IoT testbed—the Urban Observatory (https://newcastle.urbanobservatory.ac.uk/)—which offers a real-world validation environment for scalable, osmotic AI systems.

This talk envisions a shift from siloed AI systems to fluid, collaborative, and context-aware intelligence, capable of learning from—and acting upon—the edge of everything.

Speaker’s Biography

Professor Rajiv Ranjan is an Australian-British computer scientist, of Indian origin, known for his research in Distributed Systems (Cloud Computing, Big Data, and the Internet of Things). He is University Chair Professor for the Internet of Things research in the School of Computing of Newcastle University, United Kingdom. He is an internationally established scientist in the area of Distributed Systems (having published about 350 scientific papers).  He is a fellow of IEEE (2024), Academia Europaea (2022) and the Asia-Pacific Artificial Intelligence Association (2023). He is also the Founding Director of the International Centre (UK-Australia) on the EV Security and National Edge Artificial Intelligence Hub, both funded by EPSRC.  He has secured more than $68 Million AUD (£34 Million+ GBP) in the form of competitive research grants from both public and private agencies. He is an innovator with strong and sustained academic and industrial impact and a globally recognized R&D leader with a proven track record. He serves on the editorial boards of top quality international journals including IEEE Transactions on Computers (2014-2016), IEEE Transactions on Cloud Computing, ACM Transactions on the Internet of Things, The Computer (Oxford University), and The Computing (Springer) and Future Generation Computer Systems. He led the Blue Skies section (department, 2014-2019) of IEEE Cloud Computing, where his principal role was to identify and write about the most important,  cutting-edge research issues at the intersection of multiple, inter-dependent research disciplines within distributed systems research area including Internet of Things, Big Data Analytics, Cloud Computing, and Edge Computing. He is one of the highly cited authors in computer science and software engineering worldwide (h-index=83+, g-index=290+, and 34000+ google scholar citations, h-index=65+ and 19000+ Scopus citations, and h-index=50+ and 12000+ Web of Science citations).