| Qualification Type: | PhD |
|---|---|
| Location: | Newcastle upon Tyne |
| Funding for: | UK Students, EU Students, International Students |
| Funding amount: | £21,805 minimum tax-free annual living allowance (2026-27 UKRI rates) plus 100% home fees covered |
| Hours: | Full Time |
| Placed On: | 15th April 2026 |
|---|---|
| Closes: | 13th May 2026 |
| Reference: | COMP2176 |
Award Summary
100% home fees covered, and minimum tax-free annual living allowance of £21,805 (2026-27 UKRI rates)
Overview
Modern infrastructure, from smart cities to industrial IoT (IIoT), relies on massive networks of heterogeneous devices operating in complex, dynamic environments. However, traditional fault tolerance mechanisms struggle to manage the runtime uncertainties and diverse failure modes inherent in these systems. This research pioneers the fusion of distributed computing and artificial intelligence (AI) to create a resilient, next-generation architecture.
The project aims to empower IoT systems with "self-diagnosis" and "self-healing" capabilities. By integrating federated learning, graph neural networks, and blockchain technology, we will develop a framework that moves beyond static maintenance toward an autonomous, trustworthy system capable of real-time root cause analysis and automated recovery.
The Research Challenges
Ensuring the resilience of distributed IoT systems involves overcoming significant technical hurdles:
a) Adaptive Fault Monitoring: Traditional systems fail to identify root causes in multi-modal data streams; this project utilizes federated learning and graph neural networks for real-time, adaptive diagnosis.
b) Uncertainty in Dynamic Environments: Runtime uncertainties require sophisticated risk modeling; we will employ Bayesian deep learning and deep reinforcement learning to quantify uncertainty and forecast potential faults.
c) Trustworthy Autonomous Recovery: Autonomous self-healing must be verifiable; this challenge is met by designing AI-driven decision engines integrated with blockchain to ensure all recovery operations are automated and credible.
d) Scaling Heterogeneous Networks: The sheer scale of modern IoT demands a theoretical framework that remains resilient despite the complexity of diverse device types and interconnections.
Number Of Awards
1
Start Date
21 September 2026
Award Duration
3.5 years
Application Closing Date
13 May 2026
Sponsor
Supervisors
Eligibility Criteria
You must have/expect to gain, minimum 2:1 Honours degree/international equivalent in a relevant subject to the proposed PhD project. A solid background in computer science or systems engineering. Knowledge of AI/ML algorithms, particularly graph neural networks and reinforcement learning, is highly advantageous. A keen interest in distributed computing, IoT architecture, and system resilience is essential to align with the core objectives of this research. Additionally, candidates should demonstrate an interest in the practical application of these technologies within smart cities and industrial IoT contexts.
The studentship covers fees at the Home rate (UK and EU applicants with pre-settled/settled status and meet the residency criteria). International applicants are welcome to apply but must cover the difference between Home and International fees.
Applicants whose first language is not English require IELTS score of 6.5 overall, minimum of 5.5 in all sub-skills.
International applicants may require ATAS clearance certificate prior to obtaining their visa.
How To Apply
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