Project Objective
This project aims to combine bipolar HVDC transmission simulation with deep learning-based fault classification for pole-to-ground, pole-to-pole and no-fault operating cases. 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.
- bipolar HVDC line model with sending and receiving terminals
- DC voltage/current measurement at converter and line locations
- signal preprocessing and feature extraction window
- trained neural classifier or exported inference block for fault diagnosis
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
- normal bipolar HVDC operation
- positive-pole and negative-pole ground fault cases
- pole-to-pole DC fault and high-resistance fault case
- classification performance under noise or fault-location variation