Research Student
- Conducted research aimed at tackling the challenges in next-generation wireless networks.
- Implemented deep reinforcement learning techniques for spectrum management in wireless networks.
I am interested in research on next-generation wireless networks. My master's thesis was on resource allocation in heterogeneous wireless networks using deep reinforcement learning. I was fortunate to be
advised by Professor Jonathan Shock and
Dr Jaco du Toit at the University of Cape Town.
In addition to my Master's program, I was fortunate to be advised by Dr Muhammad Ali Jamshed from
the University of Glasgow, on a couple of research projects.
Prior to this, I was an undergraduate student at Olabisi Onabanjo University (OOU),
where I graduated with a Bachelor's degree in Electrical and Electronics Engineering, advised by
Dr Peter Alao
and Dr Matthew Olajide
at the Wireless Communications Lab. My final year thesis was on the design and development of a
full-duplex wireless transceivers system using 433MHz circuit modules.
The emergence of 6G network would see more integration of AI in its architecture and functionality. While the promise of 5G
network were not fully met, research on 6G networks has shown that we can achieve a major part of the promise. Thus, my research directions include:
(1) Safe and efficient reinforcement learning for wireless networks. The traditional network optimization methods often assume fixed network conditions and
static users equipment, limiting their practical applications in real-world network scenarios. While several literatures have studied machine learning techniques, particularly, reinforcement learning as a tool to replace these traditional methods,
there are still concerns regarding the safety of RL application to wireless networks due to its dynamic and non-convex nature. I aim to improve the safety and efficiency of RL application in wireless environment by
utilizing constrained Markov decision process and Bayesian neural networks to guide RL agents from high-risk states and mask unsafe action in these wireless environments.
Presently, I have proposed two RL architectures that address these concerns, Meta RL and QPPG.
(2) AI-native wireless networks. An AI-native 6G network leverages AI techniques (e.g. ML, DL, neural networks, etc) for the design,
deployment, management, and operation of various network and device functions. AI-native is important because of its adaptability, handling non-linear signals, and resource efficiency.
I aim to improve the problem of limited generalizability, limited interpretability, reduce training duration, and mitigate unsustainable computing process.
My work investigates how tranfer and continual learning could be used to address the issue of generalizability and frequent retraining. Second, integrating LLMs in network controller to
achieve improved interpretability.
Please feel free to reach out to me to share your thoughts or explore any form of collaboration!