
Learn how to install PSA Explorer version 34, including using the InstallShield wizard, installing Python and the Wind 34 extension, and configuring 50 Hz Europe defaults.
Learn to create a simple PSS/E power system project from scratch by configuring case data, mva units, base values, and a basic single-line diagram with buses and a generator.
Learn to place and configure key electrical elements in PSS/E to build a power system single-line diagram, including buses, branches, loads, generators, transformers, and DC lines.
Identify the four main PSS/E file types—save, binary, dynamic, and output. Understand how they enable power flow, dynamics, and plotting, and why save and binary must work together.
Learn to create a simple electrical circuit in pss/e by setting up a study, defining buses, a generator, and a two-side transformer to analyze power flow and currents.
Learn to save both the diagram and network data as a complete case, using save diagram file and save as to preserve all elements of the power electrical scheme.
Learn to set up and solve a PSS/E power flow, open case data, configure solution parameters, choose methods such as neutral, and analyze swing bus and voltage results.
Perform load flow analysis using a single line diagram with generator and swing buses balancing active and reactive power, then set 3 MW load and 5 MW generator and solve.
Export flow results from a converged power flow solution using the flow reports to generate wide format outputs, then export to text or Excel files for per-bus and unit details.
Perform a short circuit steady-state calculation using EIC inputs and three-phase fault options, and review results showing initial short-circuit currents with magnitudes and angles.
the dot sop subsystem file limits power flow analyses to a prescribed zone. the monitor and contingency files define supervised branches and single-outage (-1) and intact (-0) states.
Create subsystem, monitoring, contingency, and dfax files for power system analysis; select buses, monitor branches and voltage ranges, and simulate removing a unit to test system response.
Create .sub .mon and .con files directly from the PSSE SSA workspace using the configuration file builder. Uncheck append subsystem description to existing file, select the bus subsystem, and apply.
Perform AC contingency analyses in the PSS/E window using default solution engines, generate the contingency output file, and view reports detailing induction machine failure and voltage limits.
Learn how to perform qv analysis in pss/e to reveal reactive power limits caused by voltage. Use contingency options, select buses, configure the solution engine, and save the resulting reports.
Explore dynamic simulation in PSS/E by configuring the single line diagram and network data. Model dynamics for generators, renewable and induction machines, simulate hydro, wind, solar energy with Excel export.
Create a dynamic file with generator and electrical parts, configure wind turbine and hydro generator models, and align dynamics data for a reliable simulation.
Save a dynamic file for dynamic simulations by selecting the dynamics model data and saving a data file, optionally saving all models and renaming it as dynamics data.
Perform dynamic simulations in PSS/E by uploading diagrams and data, configuring wind turbine and hydro generator models, converting to dynamics, applying disturbances, including faults, and reviewing results.
Simulate hydro generation dynamics in psse by importing case files, configuring a hydro generator with exciter and turbine governor models, and running a dynamic simulation from a single line diagram.
Learn to simulate a wind turbine with a fully rated converter in PSS/E, configure the wind model and PCC, run dynamic tests, and analyze voltage and power plots.
Learn to model and simulate a solar power plant in PSA by creating a dynamic file and setting solar plant parameters; configure the photovoltaic power converter.
Learn how to plot PSSE results, build and manage multi-page plots, customize channels, edit axes and legends, and print or export data.
Export voltage results from PSSE to Excel or HTML tables by right-clicking the variable and using export options; save and copy data for use in other software.
Learn to use PSA with Python in PSSE to perform load flow and dynamic simulations, import PSA modules, initialize PSA, and configure directories and environment paths for script execution.
Learn to perform a simple power flow with Python, initialize the case, set options for the Newton-Rosen bar flow calculation, and run the script to obtain iteration results.
Perform dynamic simulation with Python for PSA by preparing case and dynamic files, converting loads and generators, and configuring channels to monitor voltage, active power, and reactive power.
Export dynamic simulation results from PSS/E using Python to Excel or text files, define channels, ranges, and scales, and plot the data for analysis.
Automate the whole workflow in Python by recording actions, generating a script, and running power flow and dynamic simulations with voltage, active power, and reactive power outputs.
This course offers a full and easily detailed tutorial for one of the most powerful software used nowadays by biggest companies in Power System and Renewable Energy field. With the fast evolution and integration of many renewable energy resources, engineers need to be completed with a lot of software skills. This course covers all the steps to conclude a project from beginner to advanced levels and the most important part is that python language is included as one of the most powerful language used todays in almost every engineering field. In the first sections users will be able to understand the basics steps to create the most simple network system. Also a detailed explanation is made for almost every electrical element used. The difficulty increases in the next steps but a simple and organized explanation is given for almost every lecture. The course is completed by simulating different renewable energy systems like; Hydro, Solar and Wind. Also there is a special dedicated section on fully automation of the software and also exporting the desired results very easily. After completing this course the user will be able to utilize almost every module or feature this software provides and feel very confident while kickstarting a career in Power Systems.