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Placer une photo ici s’il y a lieu H-Q Experiences Using Control System Replica Placer une photo ici s’il y a lieu H-Q Experiences Using Control System Replica Interfaced With Realtime Simulator in Recent HVDC Upgrade Projects Alpha Oumar Barry Power Systems & Maths Department IREQ, Hydro-Québec Montreal, September 2017

Agenda > Introduction > Overview of Hydro-Québec Research Institute > Background of IREQ’s Real-time Agenda > Introduction > Overview of Hydro-Québec Research Institute > Background of IREQ’s Real-time Simulators with HVDC Replicas > HQ-NG MTDCN : Control and Protection System Upgrade > Madawaska HVDC Link : Control and Protection System Upgrade > Main benefits of Using Replica of CPS Interfaced to Real-time Digital Simulators > Conclusion 2 HQ experiences in case of using control system replica interfaced with Hypersim real-time simulator in recent HVDC projects

Introduction > Upgrade the existing CPS (Control Protection System) • Implementation on Hi. Draw® Introduction > Upgrade the existing CPS (Control Protection System) • Implementation on Hi. Draw® using ABB MACHTM 3 System > Provide and commission the CPS on-site and the replicas at IREQ and on-site > Interface IREQ’s new and “original” replicas to HYPERSIM® > Conduct jointly with the stakeholders all the tests required > Insure an unique version of software running on the real system and the IREQ replicas 3 HQ experiences in case of using control system replica interfaced with Hypersim real-time simulator in recent HVDC projects ! Agreement between the utilities and the manufacturer (ABB) to conduct refurbishment projects of the Control and Protection System of the MTDCN and Madawaska

Overview of Hydro-Québec Research Institute A rich pool of scientific and technological expertise World Overview of Hydro-Québec Research Institute A rich pool of scientific and technological expertise World leader in large-scale power systems simulations > World leader in battery materials innovation > HQ experiences in case of using control system replica interfaced with Hypersim real-time simulator in recent HVDC projects Annual budget > 134 M$CAN > 4 More than 500 scientists, technicians, engineers and specialists > Power System Simulation Laboratory > World leader in robotics technology > Over 250 industrial partners / 1100 patents

Background of IREQ’s Real-time Simulators with HVDC Replicas Madawaska Châteauguay 350 MW back-to-back CPS Background of IREQ’s Real-time Simulators with HVDC Replicas Madawaska Châteauguay 350 MW back-to-back CPS refurbished in 2016 Between HQ and New Brunswick 1000 MW back-to-back HVDC Between HQ and NYPA and commissioned in 1984 MTDCN 2000 MW, Multi-terminal HVDC Upgrade of CPS In 2015/2016 replica (Old and new) at IREQ and on- site Between HQ and NG; commissioned in 90/92 Replica at IREQ (still functional in 2017) Outaouais 1250 MW back-to-back HVDC Between Quebec and Ontario Commissioned in 2008 5 Châteauguay Refurbishment of CPS In 2009, new replica at IREQ and on-site (maintenance & training) HQ experiences in case of using control system replica interfaced with Hypersim real-time simulator in recent HVDC projects

HQ/NG MTDCN Control and Protection System Upgrade 6 HQ experiences in case of using HQ/NG MTDCN Control and Protection System Upgrade 6 HQ experiences in case of using control system replica interfaced with Hypersim real-time simulator in recent HVDC projects

Geographical Overview 7 Network Topology HQ experiences in case of using control system replica Geographical Overview 7 Network Topology HQ experiences in case of using control system replica interfaced with Hypersim real-time simulator in recent HVDC projects

Operating Configurations 8 HQ experiences in case of using control system replica interfaced with Operating Configurations 8 HQ experiences in case of using control system replica interfaced with Hypersim real-time simulator in recent HVDC projects

Network Description Main Objective ! Switching devices controlled either by ABB command, or HYPERSIM® Network Description Main Objective ! Switching devices controlled either by ABB command, or HYPERSIM® external /internal commands Keep a single HYPERSIM® network for all configurations at different operating points Complete generating units at RAD with Governor, AVR, Stab, etc. • Marti model for « dc » line • Frequency dependant constant parameters « ac » line • Saturable « ac » transformer • Converter transformer provided with controlled OLTC • Detailed representation of “ac”/”dc” filter bank • Representation of the breakers/connectors and their logic in the “ac”/”dc” yard • RADISSON • 12 -pulse converters with snubbers • . . . • Up to LG 2 A generating units for islanded operation Thevenin equivalent (positive and zero sequence) for synchronous mode • Detailed representation of AC/DC yard NICOLET & SANDY POND • Thevenin equivalent as for Radisson • Detailed representation of AC/DC yard 9 HQ experiences in case of using control system replica interfaced with Hypersim real-time simulator in recent HVDC projects

Nicolet DC yard on HYPERSIM® NICOLET “DC” yard. Command (logic) of breaker B 103 Nicolet DC yard on HYPERSIM® NICOLET “DC” yard. Command (logic) of breaker B 103 -B 105 • 369 singles phase switching devices • 2206 signals exchanged between HYPERSIM® & replica • One single network with multiple configurations, variable operating points 10 HQ experiences in case of using control system replica interfaced with Hypersim real-time simulator in recent HVDC projects

HMI of Nicolet AC and DC Yard 11 HQ experiences in case of using HMI of Nicolet AC and DC Yard 11 HQ experiences in case of using control system replica interfaced with Hypersim real-time simulator in recent HVDC projects

Typical configuration(25 -25) on HMI 12 HQ experiences in case of using control system Typical configuration(25 -25) on HMI 12 HQ experiences in case of using control system replica interfaced with Hypersim real-time simulator in recent HVDC projects

Simulation Environment Original (Existing) Replica from 1990 • SGI Altix UV 100 • 2 Simulation Environment Original (Existing) Replica from 1990 • SGI Altix UV 100 • 2 partitions with 32 cores each • Intel Xeon CPU @ 2, 67 GHz • 64 bits architecture New Replica & HYPERSIM PS 935 13 HQ experiences in case of using control system replica interfaced with Hypersim real-time simulator in recent HVDC projects

Digital Interface Between HYPERSIM® and HVDC Replica > Interface between HYPERSIM® and replica by Digital Interface Between HYPERSIM® and HVDC Replica > Interface between HYPERSIM® and replica by a direct digital link • • Using standard PCIe Interface 32 bit floating point voltage and current. > I/o cubicles eliminated or reduced to a minimum • • Voltages and current « ac » and « dc » Switching devices Command/States and states, tap positions for OLTC … > Main advantages using a digital link for i/o signals in a « rt » environment • • • 14 Connections between simulator and external hardware made easy Signals amplification or calibration eliminated Optimization of the space required for the equipment to be installed HQ experiences in case of using control system replica interfaced with Hypersim real-time simulator in recent HVDC projects

IREQ MTDCN Testing Zone 4 1 2 3 Existing replicas (OLD replica) New replica IREQ MTDCN Testing Zone 4 1 2 3 Existing replicas (OLD replica) New replica (23 cubicles) not visible in this view Hypersim on SGI computers 64 cores with PS 935 PCIe 3 interface to MACH 3 system 4 SCADA display of the network under test 1 2 15 HQ experiences in case of using control system replica interfaced with Hypersim real-time simulator in recent HVDC projects

HMI Similarities with HQ Operating Centers Rouen Dispatching Center 16 Nicolet Station HQ experiences HMI Similarities with HQ Operating Centers Rouen Dispatching Center 16 Nicolet Station HQ experiences in case of using control system replica interfaced with Hypersim real-time simulator in recent HVDC projects

Setups and IREQ Test Program > Setups • • • ! In the three Setups and IREQ Test Program > Setups • • • ! In the three setups mentioned above, the tests to be carried out were agreed HYPERSIM® network interfaced with the “Old replica” upon by the Stakeholders. The IREQ HYPERSIM® network interfaced to New Nicolet and the test program was intended to follow rest of the existing replica : Mix-Mode the different steps on site HYPERSIM® network with the “All” New replica > Test Program in accordance with the steps of the project • • Phase II : CPT , FST (local sequences) & some selected protection tests in Mix. Mode • Phase III : CPT, FST (local and master sequences, local and master power and voltage control) & protection tests with the new replica. Various contingencies in synchronous, islanded, bipolar monopolar or hybrid modes • 17 Phase I : CPT with the original(Old) replica for reference tests. Phase IV : Procedures for commissioning on site to be validated on the “rt” simulator HQ experiences in case of using control system replica interfaced with Hypersim real-time simulator in recent HVDC projects

Simulator Results : New Nicolet vs “Original”(DC side) Config 25 -25, VST @ NIC, Simulator Results : New Nicolet vs “Original”(DC side) Config 25 -25, VST @ NIC, Idc RAD/NIC/SP =2250/2000/250 A Flt: NIC 2, abcg, 30%, 500 msec 18 HQ experiences in case of using control system replica interfaced with Hypersim real-time simulator in recent HVDC projects

Simulator Results : New Nicolet vs “Original” (AC side) Config 25 -25, VST @ Simulator Results : New Nicolet vs “Original” (AC side) Config 25 -25, VST @ NIC, Idc RAD/NIC/SP =2250/2000/250 A Flt: NIC 2, abcg, 30%, 500 msec 19 HQ experiences in case of using control system replica interfaced with Hypersim real-time simulator in recent HVDC projects

Simulator Results : “New” vs “Original” Replica Config 9 -9, Idc RAD/NIC/SP =1750/2000 A Simulator Results : “New” vs “Original” Replica Config 9 -9, Idc RAD/NIC/SP =1750/2000 A Flt: SAN 3, ag, 30%, 500 msec 20 HQ experiences in case of using control system replica interfaced with Hypersim real-time simulator in recent HVDC projects

Radisson Site vs Simulator : config 25 -25 Config 25 -25, Idc RAD/NIC/SP =800/400 Radisson Site vs Simulator : config 25 -25 Config 25 -25, Idc RAD/NIC/SP =800/400 A Test #1 -5 -13; Converter trip by REVPP 21 HQ experiences in case of using control system replica interfaced with Hypersim real-time simulator in recent HVDC projects

Madawaska HVDC Link Control and Protection System Upgrade 22 HQ experiences in case of Madawaska HVDC Link Control and Protection System Upgrade 22 HQ experiences in case of using control system replica interfaced with Hypersim real-time simulator in recent HVDC projects

Madawaska Back-to-back HVDC Interconnection Testing General Information Functional Verification Dynamic Performance Protection Québec-new Brunswick Madawaska Back-to-back HVDC Interconnection Testing General Information Functional Verification Dynamic Performance Protection Québec-new Brunswick Back-to-back configuration Commissioned in 1984 Refurbished in 2016 Electrical Data • • • DLL for Offline Models DC Side : 350 MW/2700 A / 131 k. V DLL of C. S. to HYPERSIM AC side : 315 k. V (Qc), 345 k. V (NB) 12 pulses converter topology DLL of C. S. to EMTP-RV IREQ Replica Redundant control system A main module controlling Rect/Inv VCU interface to HYPERSIM 23 HYPERSIM® “RT”simulation of the AC/DC grid @ 50 s Same software in replicas and on site > 1000 signals : Replica HYPERSIM® HQ experiences in case of using control system replica interfaced with Hypersim real-time simulator in recent HVDC projects

Madawaska Back-to-back HVDC Interconnection (cont…) Simulated Network on HYPERSIM® 24 HQ experiences in case Madawaska Back-to-back HVDC Interconnection (cont…) Simulated Network on HYPERSIM® 24 HQ experiences in case of using control system replica interfaced with Hypersim real-time simulator in recent HVDC projects HYPERSIM® vs EMTP-RV®

Main benefits of Using Replica of CPS Interfaced to Real -time Digital Simulators > Main benefits of Using Replica of CPS Interfaced to Real -time Digital Simulators > Reduce the commissioning time and cost > Increase the reliability of the equipment operating in the power grid > Contribute to the reliability and the safety of the power system under normal and abnormal operating conditions. > Follow the evolution of the power grid for the lifetime duration of the equipment > Support the power exports between HQ and the neighbouring networks > Better understand the interactions between different equipment in the power grid. > Take advantage of IREQ lab for training purposes (engineers and operators) 25 HQ experiences in case of using control system replica interfaced with Hypersim real-time simulator in recent HVDC projects

Conclusion Presentation focusing on : • • Flexible interface developed to allow easy switching Conclusion Presentation focusing on : • • Flexible interface developed to allow easy switching between « Original » and « New » replicas • Validating mix-mode configuration: New Nicolet with the original remaining replica • Running of multiple configurations with various contingencies according to the accepted test program to validate functions and systems • Validation of the test procedures for the two commissioning phases • 26 Hypersim description as a real-time simulator capable of interfacing with external replicas of HVDC/FACTS systems New CPS simulation results compared favorably with the original replica and the on-site commissioning tests HQ experiences in case of using control system replica interfaced with Hypersim real-time simulator in recent HVDC projects

Conclusion Thank you for your attention ! 27 HYDRO-QUÉBEC 27 HQ experiences in case Conclusion Thank you for your attention ! 27 HYDRO-QUÉBEC 27 HQ experiences in case of using control system replica interfaced with Hypersim real-time simulator in recent HVDC projects