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Real-time HIL Testing

Real-time Hardware-in-the-Loop (HIL) testing is a method to test complex power systems in real-time. It involves connecting a physical control-protection system to a simulation environment to test its performance and functionality. This type of testing is commonly used in power systems to validate and optimize control strategies and system performance before field deployment.

Real-time Control-Hardware-In-the-Loop (C-HIL) Pre-field Testing

Empowering Your Business At the Edge

Full-Scale Verification of Control and Protection Platforms Prior to Field Implementation. Hardware-In-the-Loop (HIL) testing is a critical step in ensuring that your embedded system's control and protection platforms meet performance requirements before field implementation. At ETP, we offer full-scale performance verification of your system using our HIL testing procedure.

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Our HIL testing approach uses the embedded control and protection components of the system as the Device-under-Test (DuT) and connects them to our real-time simulators. We perform system-level testing² using customized scenarios that replicate your specific requirements and challenges, ensuring that the embedded control and protection solutions meet your objectives while minimizing projects' costs and time without posing risks to real assets.

Trusted Partners

Our UF-GDMS

Our industrial-grade, software-hardware PMS and PPC platforms enables ultra-fast coordination and power management between large number of Distributed-Energy-Resources (DERs) to maximize electric grids' reliability and resiliency.

Key Features of Our Real-time Simulation Platform

Exceptional Quality

Real-time Simulation of Large-scale Grids

Capable of simulating massive electrical systems with up to 900 three-phase electrical nodes, and up to 30 various types of DERs, including renewable energies and energy-storage systems.

Flexible and Modular Simulation Environment

Experience unparalleled versatility and accuracy with ETP's state-of-the-art HIL simulation solutions.

Representation of analog and digital I/O interfaces as well as IEC-61850 communication protocols..

Real-time Simulation of Fast Transients

Capable of simulating fast voltage transients and high-frequency components in nanoseconds to microseconds to ensure representation of phenomena related to converter and inverter systems.

Detailed Capabilities

Wide-area Power System Control

Managing weak system strength

Mitigating reduced inertia

Voltage stabilizers and regulators

Load-flow Study

Arc Flash Study

System Strength Test

Oscillation damping

Sub-Synchronous-Resonance (SSR) mitigation

Power system conditioners

Load-flow Study

Transient Stability Analysis

Sub-synchronous Impedance Testing

Interconnection & Control of DERs at the Distribution Level

Control of renewables, L-3 EV Chargers & BESS

Anti-islanding operation

Enable behind-the-meter operation, e.g., peak-shaving

Connection impact assessment & mitigation

Voltage & frequency ride-through capability

IEEE-1547 & CSA compliance

Sub-synchronous Resonance (SSR) Studies

Microgrid Operation, Control, and Protection

Microgrid supervisory control (EMS)

Black-start capability

Seamless mode transition

Virtual-Power-Plant (VPP) operation

Microgrid Storage: Grid-Forming and Grid-Following Assessment."

Microgrid DERs controlled dynamically.

In-rush Current Analysis

Behind-the-Meter Operation

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Phoenix Contact GmbH

" ETP is revolutionizing the electric grids with our state-of-the-art PLCnext technology! "

Design of Grid Management Solutions for Distribution Systems and Microgrids

  • Phasor-based fault current calculations for microgrids, distribution & transmission systems

  • HIL testing of communication-assisted protection schemes such as POTT, PUTT and DCB

  • Control parameter determination for reliable DER and BESS protection

  • Relay protection system design and evaluation for microgrids and high-voltage systems

  • Fault detection and isolation for protection relays

  • Relay coordination studies in the event of faults or disturbances

  • Recommending upgrades and modifications for DER and BESS integration

  • Advanced protection, automation, and communication system design based on IEC-61850

  • Fault location scheme design for microgrids and distribution systems

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