Solar PV–Fed Dual Active Bridge Converter with MPPT and Single-Phase-Shift Control for Three-Phase Grid Integration in MATLAB Simulink

MATLAB / SimulinkPower Electronics & Renewable EnergyPV-Fed DAB Grid Integration

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Technical overview

About this project

The project Solar PV–Fed Dual Active Bridge Converter with MPPT and Single-Phase-Shift Control for Three-Phase Grid Integration in MATLAB Simulink addresses MPPT-driven PV conversion, dual-active-bridge power transfer, single-phase-shift control and three-phase grid integration. The implementation can be used to study the engineering response, compare operating conditions and define additional cases for postgraduate or PhD-oriented work.

The simulation platform inferred for this project is MATLAB / Simulink. Because the exact model version and deliverable set can vary, the project video should be treated as the visual reference while the final file package is confirmed against the requested scope. The title specifically references MPPT, which should remain part of any validation or comparative study.

Research problem

Problem statement and research intent

The research problem is to coordinate PV maximum-power extraction, isolated bidirectional DAB power transfer, DC-link regulation and grid-side current injection without losing stability when irradiance, power command or grid conditions change.

Specific project topic: Solar PV–Fed Dual Active Bridge Converter with MPPT and Single-Phase-Shift Control for Three-Phase Grid Integration in MATLAB Simulink. This dedicated page keeps the exact technical topic in the heading, metadata, methodology and internal links rather than sending researchers to a generic software category.

Research objectives

Project objectives and study scope

  • Model the PV source and MPPT stage under changing irradiance and temperature.
  • Implement the DAB transformer and bridges with single-phase-shift power control.
  • Regulate the DC link and synchronize a three-phase grid-side inverter with the utility voltage.
  • Measure power flow, current quality, tracking response and converter stress across operating cases.
  • Create comparison cases for controller gains, phase shift, irradiance and grid disturbances.
Model architecture

Main model / simulation components

PV array and MPPT controller
Dual active bridge with high-frequency transformer
Single-phase-shift control and gate generation
DC-link measurement and regulation
Three-phase VSI, filter and grid interface
Scopes for PV, DAB, DC-link and grid variables
Methodology

Recommended simulation workflow

  1. Parameterize the PV array, DAB transformer ratio, switching frequency and grid-side ratings.
  2. Verify MPPT tracking independently before connecting the isolated conversion stage.
  3. Map DAB power transfer against phase shift and confirm transformer/bridge waveforms.
  4. Close the DC-link and grid-current control loops with synchronized dq or equivalent control.
  5. Apply irradiance steps and power-reference changes, then test grid-side transients.
  6. Report efficiency-related indicators, ripple, active/reactive power and current quality without overstating unmeasured results.
Results

Key outputs and plots to analyze

Available plots depend on the project files and software version. For this topic, the most useful engineering outputs typically include:

  • PV voltage, current, power and MPPT tracking
  • DAB primary/secondary voltage and current waveforms
  • Phase shift versus transferred power
  • DC-link voltage and ripple
  • Three-phase grid current and synchronization
  • Active/reactive power and comparative operating cases
Research extension

Possible novelty and further research directions

For a new scholar title, the existing project can be extended without claiming novelty until the proposed change is tested against current literature and validated technically. Practical directions include:

  • Adaptive or predictive phase-shift control that considers device stress and soft switching.
  • Battery/BESS integration for dispatchable PV and grid-support operation.
  • Efficiency comparison against resonant DAB variants or alternative MPPT methods.
  • Weak-grid, voltage-sag or reactive-power support studies for publication-oriented work.
Applications

Where this project can be applied

Grid-connected photovoltaic systems
Isolated renewable interfaces
Bidirectional DC conversion
Microgrids and DC distribution
Project package

Files, customization and technical support

Ready project-file packages are typically priced between 100$ and 200$ depending on model complexity and included files. Additional implementation, new research objectives, optimization, assignments, thesis writing, paper preparation, result interpretation and other services are quoted separately after scope review.

Ready filesModel/source files when available
ConfigurationSimulation setup and parameters
ResultsAvailable scopes, graphs or solver outputs
CustomizationNew cases, controls and research extensions
FAQ

Frequently asked questions

What software is used for Solar PV–Fed Dual Active Bridge Converter with MPPT and Single-Phase-Shift Control for Three-Phase Grid Integration in MATLAB Simulink?

The project is classified under MATLAB / Simulink. Confirm the required software release before ordering or requesting modifications.

Can this project be modified for a new research title?

Yes. The project can be reviewed against a new abstract or base paper and extended with additional operating cases, algorithms, parameters, plots or validation steps where technically appropriate.

What results are included?

The video demonstrates the project visually. Exact result plots and source/model files vary by project and should be confirmed before delivery. Additional plots can be implemented as a separate service.

Can this be used for PhD or thesis work?

It can serve as a simulation starting point. Research contribution, novelty, validation and literature positioning must be developed specifically for the scholar's problem statement and cannot be guaranteed from a ready project alone.

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