Dynamics Model Development (Online) 20.10.26.PER, Perth
| Description | Start | End |
|---|---|---|
| Day 1: Tuesday | 8 AM | 5 PM |
| Day 2: Wednesday | 8 AM | 5 PM |
Topics covered include:
CO-01-01 - DIgSILENT Introduction
- Global company overview.
- DIgSILENT Pacific offices.
- Products and services offerings.
- PowerFactory development history.
PF-28-01 Introduction to dynamic models
- Dynamic models' frame and element structure
- Location of dynamics model in PowerFactory database
- Connection between dynamics models and the network model
- Dynamics model types, continuous vs discrete time, RMS vs EMT, and DSL vs Modelica
PF-28-02 Dynamic models in PowerFactory
- PowerFactory dynamic model implementation
- Creating composite model type or frame
- Creating Modelica composite model
- Linking composite model with network element
PF-28-03 Simulation of dynamic models
- Initialising model steady-state conditions
- Defining model variables for simulation monitoring
- Configuring simulation settings and events
- Executing and visualising simulation results
PF-28-04 Model development with Modelica
- Introduction to Modelica modelling language
- Using Modelica models from DIgSILENT library
- Graphical model development with function blocks
- Defining function block behaviour with Modelica code
- Assigning model parameters and defining model signals
PF-28-05 System modelling concepts
- Developing function block diagram description of system dynamics
- Converting between transfer-function and state-space system representation
- Converting between continuous and discrete time dynamics with Euler and Tustin approximations
- Example of continuous and discrete time state-space implementation of 1st and 2nd order systems
PF-28-06 Continuous time dynamic models
- Advantages of modelling continuous time dynamics in Modelica
- Modelica's features for continuous time dynamics modelling
- Implementing continuous time model as a hybrid continuous and discrete time Modelica model
- From 'scratch' development of synchronous generator model with:
- Turbine plant dynamics model
- GOV frequency controller model
- AVR voltage controller model (optional)
- PID controller model (optional)
PF-28-07 Controller models in discrete time
- The case for discrete time dynamic models of controllers for IBR, HVDC and FACTS
- Modelica's features for developing models of digital controllers in discrete time
- Implementing discrete time model of digital control algorithm in Modelica
- From 'scratch' implementation of discrete time control algorithm for:
- Limiters control algorithm
- Current limiter control algorithm
- Moving average filter algorithm (optional)
- FRT control algorithm (optional)
PF-28-08 Model exchange with FMI
- FMI open standard for model exchange and co-simulation with FMU models
- Sharing model's input/output signals and internal states via FMU models
- Exporting PowerFactory models as external FMU models
- Importing external FMU models into PowerFactory
Please note:
Full rate AUD 2,178 inclusive of GST
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