Project Objective
This project aims to design a community battery energy management model that coordinates residential PV generation, household demand profiles, grid exchange and battery state of charge. It is suitable for engineering scholars and PhD researchers who need a clear model explanation, simulation workflow and thesis-ready result discussion.
System Architecture
The implementation can be organized as a modular research model with plant, controller, measurement and result-visualization blocks. This page is structured for literature extension, methodology writing and reproducible simulation reporting.
- multiple residential PV generation profiles and daily load curves
- shared community battery model with SOC and power limits
- energy management rule layer for charge, discharge and grid import/export
- performance indicators for peak shaving and PV utilization
Research Methodology
The recommended methodology begins with base-case modelling, parameter selection and initial validation. The next step is to introduce the control, energy-management, protection or fault-diagnosis algorithm and evaluate the system under carefully selected operating conditions. The final report should compare baseline and improved responses using measurable indicators.
Recommended Simulation Cases
- high PV and low load profile with midday charging
- evening peak demand support using stored PV energy
- mixed household load diversity and battery sharing scenario
- SOC constraint and grid import reduction analysis