Control Strategy for Multiple Residential Solar PV System in Distribution Network With Improved Power Quality

Also Available Domains Power Quality

Project Code :TEPGPS784

Objective

The main objective of this project is to propose a modified power control (MPC) system for an autonomous microgrid that connects multiple solar photovoltaic inverter (SPI) units.

Abstract

Abstract: In this project, a modified power control (MPC) for a grid-interfaced autonomous microgrid connecting multiple solar photovoltaic inverter (SPI) units. An MPC provides the automatic transition capability between grid-tied mode (GTM) and an islanding mode (IAM) for a microgrid consisting of multiple parallel-operated SPIs. In GTM, SPIs extract PV power to fulfil the load demand, and the rest power is fed to the grid at the unity power factor (UPF) by working in the current control mode (CCM). Upon grid failure, the main SPI unit inherently changes from CCM in GTM to voltage control mode (VCM) in the IAM state to achieve an uninterruptable power supply to loads. When the grid restores, the main SPI unit near the point of common coupling (PCC) re-synchronizes the PCC voltage with grid voltage in the microgrid and control shifts back to GTM. A seamless mode transition in the microgrid is achieved without rearrangement of control formation, and power distribution between the parallel SPI units is achieved without communication setup. This reduces the cost of remote communication setup for resynchronization and saves the complexity. Moreover, MPC accurately regulates the reference grid current of SPIs when the load demand fluctuates. The MPC method combines the adaptive integrator filter (AIF), which attenuates the harmonics from the input signal to strictly control the power factor at PCC and maintains the total harmonics distortion (THD) of grid current and PCC voltage according to the IEEE stand. 519. The simulation results can be evaluated by using Matlab/Simulink Software.

Keywords: Solar generation, Grid, Inverter, PI controllers, Power Quality, MPPT, Bi-directional Dc-Dc converter, Active power control, battery, GTM and IAM.

NOTE: Without the concern of our team, please don't submit to the college. This Abstract varies based on student requirements.

Block Diagram

Specifications

Software Configuration:

Operating System: Windows 7/8/10

Application Software: Matlab / Simulink

Hardware Configuration:

RAM                           : 8 GB

Processor                     : I3 / I5 (Mostly prefer)

Learning Outcomes

·         Introduction to Matlab/Simulink

·         What is EISPACK & LINPACK

·         How to start with MATLAB

·         About Matlab language

·         About tools & libraries

·         Application of Matlab/Simulink

·         About Matlab desktop

·         Features of Matlab/Simulink

·         Basics on Matlab/Simulink

·         Introduction to Renewable Energy Sources

·         Introduction to Pulse Width Modulation (PWM),

·         Introduction to the Energy storage methods.

·         Introduction to the Reactive power compensation.

·         Introduction to the converters.

·         About Energy quality Improvement.

·         About Load quality improvement.

·         Introduction about Hybrid Micro Grid.

·         Introduction to Power grids.

·         Introduction to Solar Grids.

·         Introduction to the active power Control.

·         We can learn about PI Controllers

·         Project Development Skills:

o   Problem analyzing skills

o   Problem solving skills

o   Creativity and imaginary skills

o   Programming skills

o   Deployment

o   Testing skills

o   Debugging skills

o   Project presentation skills

o   Thesis writing skills

Demo Video