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SHU

Agentic Reconfigurable Battery Scheduling for Multi-Energy Markets

Sheffield Hallam University Engineering and Built Environment
βœ“ Funded (Competition) ⏰ Closing Soon renewable energy artificial intelligence agentic ai battery scheduling electrical engineering energy technologies multi-energy markets smart grids

Develop cutting-edge agentic AI algorithms to autonomously control reconfigurable battery systems across complex multi-energy markets. Lead innovation in smart grid intelligence that dynamically adapts to evolving energy demands and market signals.

AI-generated overview

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Why This Research Matters

This research is vital for integrating renewable energy by enabling flexible, intelligent battery storage that maximises revenue, optimises performance, and enhances grid stability. It supports the global shift towards resilient, low-carbon, multi-energy systems benefiting diverse communities.

Agentic AI Reconfigurable Batteries Multi-Energy Markets Smart Grid Energy Storage Autonomous Systems

Project Description

This project sits within Sheffield Hallam University's College of Business, Technology and Engineering, aiming to be a leader in applied research transforming energy systems. It focuses on reconfigurable battery systems (RBS) integrated with agentic AI that can autonomously adapt and optimise in real time across electricity, heat, transport, and hydrogen markets. The goal is to develop algorithms enabling batteries to respond rapidly to market signals, reconfigure internal topologies for revenue, health, emission, and resilience balance, and operate autonomously in complex microgrid environment. You will develop AI frameworks including multi-agent reinforcement learning, autonomous optimisation agents, and model-based reasoning systems, integrated with detailed battery hardware models. You'll design strategies for batteries to intelligently participate in markets such as frequency response, peak-shaving, EV charging optimisation, heat-pump support, and hydrogen production. Simulation environments and digital twins will be built to test performance under realistic operational and market conditions. Your research will create advanced autonomous control algorithms allowing reconfigurable batteries to maximise revenues while supporting grid stability and decarbonisation. The work will provide new insights into smart grid architectures and multi-energy market participation, advancing technologies that increase resilience and flexibility for sustainable energy systems. With renewables increasing, intelligent and adaptable energy storage is vital. This research addresses critical challenges in integrating heterogeneous energy vectors and market participation by pioneering a new intelligent battery scheduling paradigm. The project aligns with efforts to support remote communities, microgrids, and grid-constrained areas in transitioning to low-carbon energy systems globally.

Entry Requirements

Applicants should have at least a 1st or 2:1 Honours degree in Electrical and Electronic Engineering, Power Systems or related disciplines. Strong analytical, programming, AI, optimisation, and power systems experience required. IELTS 7 with minimum 6.5 in all bands for non-native English speakers. Applications encouraged from underrepresented groups.

How to Apply

Submit via Sheffield Hallam University's online application form. Upload the following:
(1) a personal statement (max 2 pages) detailing your interest and relevant experience;
(2) two letters of reference (at least one academic, both dated within the last 2 years);
(3) copy of your highest degree certificate;
(4) non-UK applicants must also submit IELTS results (taken within the last 2 years) and a copy of their passport. If applying to multiple GTA projects, list all in your application and submit a tailored personal statement for each. Contact: Dr Augustine Ikpehai at a.ikpehai@shu.ac.uk.

Eligibility

UK/Home
EU
International

Supervisor Profile

DA
Dr Augustine Ikpehai
Sheffield Hallam University, Engineering and Built Environment
1200 Citations
18 h-index
Google Scholar

Dr Augustine Ikpehai specialises in the intersection of artificial intelligence and smart energy systems. His research focuses on developing autonomous, agentic AI solutions to optimise energy storage and multi-energy market participation. He has contributed significantly to advancing sustainable energy technologies and grid resilience innovations.

Key Publications

2018
An Integrated Control Strategy for Grid-Connected Power Converters in Renewable Energy Systems
This paper developed novel control methods improving the stability and power quality of renewable energy integration.
2017
Advanced Modeling and Control of Multilevel Converters for Smart Grid Applications
Contributed to enhanced converter performance and reduced harmonics in complex grid scenarios.
2020
Design and Implementation of Robust Control Systems for Microgrid Energy Management
Improved microgrid operational reliability and optimized renewable usage.