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Hydrogen Vehicle & Smart-Grid Integration

Fuel Cell Vehicle-to-Grid (V2G) System Modelling and Simulation – MATLAB Simulink

A fuel-cell electric-vehicle and vehicle-to-grid model that coordinates fuel-cell power, the vehicle DC link and a grid-connected inverter during mobility, charging and grid-support operation.

EV & Battery TechnologyMATLAB SimulinkPhD ResearchEngineering ProjectFYP
MATLAB Simulink project video: Review the system architecture, controller sequence, scope waveforms and model response. The video file is loaded from assets/videos.
Academic-use disclaimer: Parameters, blocks, outputs and performance values depend on the selected paper, software release, component ratings and university requirements. This page supports technical learning, project planning and ethical research implementation.

Project Objective

Study how a fuel-cell vehicle can exchange controlled active and reactive power with the grid while respecting stack dynamics, DC-link regulation, auxiliary storage limits and hydrogen-consumption constraints.

The page is written to help researchers move from a project title to a structured model, a defendable simulation methodology and a clear set of result graphs without claiming fixed performance before the final parameters are selected.

System Architecture and Main Blocks

  • Fuel-cell stack with polarization and dynamic response
  • Hydrogen supply and consumption calculation
  • Unidirectional or bidirectional DC–DC converter
  • Vehicle DC link and optional battery/supercapacitor buffer
  • Grid-connected voltage-source inverter and filter
  • PLL, current controller, active/reactive power controller and V2G supervisor

MATLAB Simulink Methodology

  1. Parameterize the fuel-cell stack, converter, DC link, grid and vehicle power demand.
  2. Validate fuel-cell voltage/current response before enabling V2G exchange.
  3. Tune DC-link and grid-current loops with appropriate bandwidth separation.
  4. Define mobility, parked, charging and V2G-support operating modes.
  5. Evaluate power quality, stack loading, DC-link stability and hydrogen use during command changes.

Recommended Simulation Scenarios

  • Vehicle propulsion followed by parked V2G mode
  • Grid active-power export step
  • Reactive-power or voltage-support command
  • Grid-voltage disturbance
  • Fuel-cell power-rate and hydrogen-use constraint comparison

Expected Outputs and Performance Metrics

  • Fuel-cell stack voltage, current and power
  • Hydrogen consumption or utilization rate
  • DC-link voltage and converter duty ratio
  • Grid current, active power, reactive power and power factor
  • Vehicle/auxiliary-storage energy state and operating-mode timeline

Results should be plotted with labelled axes, units, reference signals and event times. Baseline and proposed-control cases should use the same operating conditions for a fair comparison.

Research Novelty and Extension Options

  • Battery–fuel-cell hybrid energy management
  • V2G frequency regulation and virtual inertia
  • Degradation-aware fuel-cell power scheduling
  • Renewable-powered hydrogen and electrolyzer integration
  • Aggregated fleet V2G control

Applications for PhD, Engineering Projects and FYP

  • Hydrogen-energy and smart-grid PhD research
  • Fuel-cell EV FYP and postgraduate projects
  • Vehicle-to-grid converter-control studies
  • Distributed energy-resource and ancillary-service analysis
  • Green-hydrogen mobility system evaluation

Suggested Report Structure

A strong report can include problem definition, literature review, governing equations, system block diagram, parameter table, controller design, simulation cases, result discussion, limitations, proposed novelty and future scope. Screenshots should be accompanied by technical interpretation rather than presented without explanation.

Frequently Asked Questions

Fuel Cell Vehicle-to-Grid (V2G) System Modelling and Simulation – MATLAB Simulink

Can a fuel cell respond as fast as a battery?

Fuel-cell dynamics are generally slower, so a buffer battery or supercapacitor is often used for rapid transients.

Which grid controller is required?

A PLL-synchronized dq current controller is commonly used for active/reactive power exchange, with a DC-link controller providing the active-current reference.

What should be included in hydrogen analysis?

Report stack power, fuel flow or consumption, efficiency assumptions and the effect of V2G commands on hydrogen use.

Can this model support frequency regulation?

Yes. An outer frequency-support loop can generate active-power commands, subject to stack and storage limits.

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Research Enquiry

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Share your base paper, software version, required controller or algorithm, expected graphs and deadline. The model scope can then be mapped clearly for a dissertation, publication study or FYP.

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