Control task of microgrids

Job ID: 30689977

Budget: $30 – $250 USD

Phase 1:
These are the specifications of the model to be designed.
A) Design and implementation of the ADAPTIVE {Model Reference Adaptive
Control OR Adaptive Pole-Placement OR Adaptive Sliding Mode Control etc…. you can check from the ant review paper of ADAPTIVE CONTROLLERE, Front page of the given below as 2014 systems Paper} with complete coding and design parameters.
MODEL CONFIGURATION:
Electrical system:
I. Parallel connected system with 2 DGs
II. DG inverter { IGBTs + PWM connections+ LCL Filter + Feeder +High,
Load}
Control System {Decentralized control … implemented to each inverter separately}
PLL block should be placed to generate wt signal for abc to dq and dq to abc transformation.
I. Power calculations
II. Modified Droop.
III. Virtual impedance. Loop
IV. Voltage control.
V. Current control

VI. ADAPTIVE CONTROLLER (Model Reference Adaptive Control OR
Adaptive Pole-Placement OR Adaptive Sliding Mode Control etc…)
{YOU HAVE TO DESIGN AND ADD TO FINALIZE THE MODEL }
I need True Model with all the authentic results from the complete model with ADAPTIVE Control which adopts the FEEDER’s impedance changes and load changes ADAPTIVELY.
:


Fig. 1 Types of the ADAPTIVE controller (you can download)
Following the pattern/theme of Willy 2018 paper but with own proposed strategy to
A. Calculate and supress circulating current to 0 for Medium and high loads, Circulating current calculation in the already built model based on the proposed (own) control after addition of ADAPTIVE CONTROLLER.
B. Active power (P) before and after Feeder 1 must be exactly equal to Feeder 2 for Medium and high loads.
C. Reactive power (Q) before and after Feeder 1 must be exactly equal to Feeder 2 for Medium and high loads.
The results display be like in Fig.2;
Model is provided to you with fixed virtual impedance values … you have to add ADAPTIVE Controller only

Fig. 2 Already built-in model for addition of ADAPTIVE CONTROLER and Results verification display.

Results for loads be like:
If P=2.4 kilo Watt and Q=430 VAR load is connected to the system, The results must be equal in power sharing and CC=0 For above case
(i) P for VSI 1 must be= 1.2 Kw,
(ii) P for VSI 2 must be= 1.2 Kw,
(iii) Q for VSI 1 must be= 215 VAR,
(iv) Q for VSI 2 must be= 215 VAR,
And Circulating current must be =0

A small report which includes the methodology and flow graph and working of the controller + stability … etc. is also included in task Especially the MPC etc. control part….