No, PSCAD is not open source. It is a proprietary software developed by Manitoba Hydro International (MHI). However, PSCAD offers flexibility by allowing users to write custom components in Fortran and integrate them with EMTDC models. This makes it highly adaptable for academic and industrial research applications.
Our training program teaches how to develop and use custom components efficiently.

PSCAD version 4.5 was released in 2020 with significant upgrades, including a faster simulation engine, better library organization, and improved graphical performance. It remains one of the most stable and widely used versions for EMT studies.
In our course, all demonstrations are performed using PSCAD 4.5 for maximum relevance.

To create a new component, open the Master Library, right-click, and select Create Component. You can then define symbols, parameters, and internal logic using Fortran code or existing subcomponents. This helps in designing custom controllers, converters, or devices.
Our course includes hands-on exercises to create user-defined components step by step.

In PSCAD, a subsystem helps simplify complex circuits by grouping multiple components into a single reusable block. To create one, select the required circuit portion, right-click, and choose Create Subsystem. This makes large models more readable and modular.
Our PSCAD training covers subsystem creation for solar, wind, and converter modules.

PSCAD is preferred because it accurately models electromagnetic transients and provides detailed time-domain results. Engineers can visualize waveforms, switching behavior, and control performance during faults or dynamic conditions. It’s widely used for HVDC, renewable integration, and transient stability studies.
Our course helps you understand why PSCAD is essential for modern power system engineers.

EMTDC (Electromagnetic Transients including DC) is the simulation engine that runs behind PSCAD. It performs precise numerical calculations of electrical systems in the time domain. PSCAD serves as the graphical interface to build circuits, while EMTDC executes the actual simulation.
In our course, we explain how EMTDC works internally and how to interpret EMT simulation results effectively.

PSCAD is used for transient and dynamic simulation of power systems. It allows engineers to analyze switching surges, converter behavior, harmonic distortion, and control system responses. Typical applications include HVDC, renewable energy plants, FACTS devices, and protection studies.
Our training uses real case studies to show how PSCAD helps solve practical engineering problems.

The main difference lies in the simulation type. PSCAD performs time-domain electromagnetic transient simulations, while PSS®E focuses on phasor-domain steady-state and dynamic studies. PSCAD captures high-frequency switching and control effects; PSS®E is used for power flow and stability analysis.
Our course clarifies when to use PSCAD versus PSS®E through comparative examples.

ETAP is primarily used for steady-state analysis such as load flow, short-circuit, and protection coordination. PSCAD, on the other hand, is used for transient and control studies where system response over time is critical. Both tools complement each other in complete power system analysis.
In our PSCAD course, we show how ETAP and PSCAD results align for real project validation.

MATLAB/Simulink is a general-purpose simulation platform used for control and signal processing, while PSCAD is specialized for power system transients. PSCAD provides ready-to-use libraries for electrical equipment, making it faster for EMT simulations. MATLAB is flexible but needs more setup for equivalent analysis.
Our course bridges the gap by showing how MATLAB control logic can be integrated with PSCAD models.

A PSCAD project file carries the extension .pscx or .pslx. It stores the schematic, parameters, and simulation configuration. Each file contains circuit connections, signal links, and data that the EMTDC engine uses during simulation.
Our course helps you create, organize, and manage PSCAD project files professionally.

Power in PSCAD can be measured using wattmeter components or by multiplying voltage and current signals with multipliers and viewing results through meters or graphs. You can display both instantaneous and average power for analysis.
We demonstrate power and energy measurement methods in our practical PSCAD sessions.

To model a transformer, drag the Transformer component from the library, specify MVA rating, voltage ratio, and connection type. You can also enable magnetizing and saturation effects for realistic simulation. PSCAD supports single-phase, three-phase, and autotransformer configurations.
Our course includes multiple transformer modeling exercises, from basics to inrush studies.

The best tool depends on your purpose. For transient simulation, PSCAD is ideal. For steady-state studies, ETAP or DIgSILENT PowerFactory is preferred. For schematic and wiring design, tools like AutoCAD Electrical or EPLAN are commonly used.
Our PSCAD course helps you understand where PSCAD fits within the electrical software ecosystem.

PNI (Port Number Identifier) is used in PSCAD to connect signals between subsystems or components. It ensures proper communication between input and output ports in hierarchical designs. Correct use of PNIs keeps models modular and easy to troubleshoot.
Our training shows practical examples of PNI use in multi-level subsystem modeling.

To model a transformer in PSCAD, insert the transformer element from the library, define parameters such as rating, impedance, and vector group, and connect primary and secondary windings. You can visualize flux, current, and inrush effects during energization.
We guide you through step-by-step transformer modeling during our live course sessions.