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- ARTEMiS Installation Guide
- ARTEMiS Concepts
- State-Space Nodal SSN Solver Tutorial
- Introduction to the SSN Solver
- The SSN Library
- Setting Initial Conditions with SSN
- Using the SSN Nodal Interface Block in a Model
- Explanation of Improved Speed with SSN
- Iterative Methods in SSN
- SSN Parallel Without Delays
- Inlined Voltage Inverter Compensation IVIC
- Static Var Compensator
- Special ARTEMiS SSN RT-LAB Flags and Miscellaneous Optimizations
- Tips and Tricks Workarounds with SSN
- Using ARTEMIS
- ARTEMiS and SSN Block Library
- Block Help
- 3-Level NPC TSB with High-Impedance Capability
- DC Bus Decoupling Blocks
- Marti-type FD-line Model (v2.0)
- ARTEMiS TSB 2-Level
- ARTEMIS VBR-Synchronous Machine
- ARTEMiS Transformer with Switched Saturable Core
- ARTEMiS-SSN Nodal interface Blocks
- ARTEMiS Stubline
- ARTEMiS-SSN WideBand Line
- ARTEMiS-SSN Frequency Dependent Line
- ARTEMiS MMC 2P Cell
- ARTEMiS MMC 1P Cell
- ARTEMiS GUIde (versions 7.5+)
- ARTEMiS Guide Reference
- ARTEMiS Distributed Parameters Line with Variable Internal Fault Distance
- ARTEMiS Distributed Parameters Line
- SSN Distributed Parameter Line with Fault
- SSN Dynamically Modifiable Components
- SSN Iterative Surge Arrester (iMOV)
- SSN-IVIC 3-level NPC Inverters
- SSN-IVIC 2-level Inverters
- SSN Synchronous Machine
- SSN OLTC 2-winding Transformer with Saturation
- SSN Synchronous Machine Standard-PU (6 terminals)
- SSN Dual Stator Permanent Magnet Synchronous Machine
- SSN Double Stator Synchronous Machine
- SSN Permanent Magnet Synchronous Machine
- SSN Reconfigurable Breakers
- SSN Faults and POW Synchronization Blocks
- SSN TSB-RD (2-level, 3-level NPC, 3-level T-type)
- SSN Induction and Doubly-fed Induction Machine
- Wideband and Marti-FD-line Fitter
- Wideband Line Model (v2.0)
- OpReplaceSpsBlocks
- ARTEMiS 3-phase Coupled Stubline and Compensation Block
- SSN TSB-RD (3-level Flying Capacitor)
- SSN JMAG Spatial Harmonic PMSM Block
- 5-level NPC TSB-RD
- Examples ARTEMiS
- Basic ARTEMiS-SSN Examples and Applications
- ARTEMiS Zigzag-Y and Y-D Transformers with Switched Saturable Core
- Three-winding Transformer Model Using SSN User Coded Model
- Saturable Transformer with Continuously Variable Turn-ratio Using SSN External Group Feature
- ARTEMiS-SSN Inlined Time-Stamped Bridge in 2-level VSC-based HVDC Applications Using IVIC Algorithm SSN
- Simulation of Small HVDC System with Nodal State-Space SSN and Inlined Thyristor Valve Compensation ITVC Algorithms
- Simulation of Single Thyristor Rectifier with ARTEMIS ITVC Inlined Thyristor Valve Compensation
- RLC Energization and Effects of L-stable Solver
- Transformer Modeling With ARTEMiS Stublines
- ARTEMiS Distributed Parameter Line Usage to Decouple State-space System Equations
- Simulation of Switched Filter Circuit Using Nodal State-Space SSN Algorithm
- SSN Transmission Line Models
- Comparison of Wideband and Marti Models for 735 kV Overhead Lines
- SSN WideBand Line Models of 2nd Generation R2015a and up
- SSN Simulation of a WideBand Line Model With Full Phase Domain Fitting of Frequency Dependent Parameters
- SSN Simulation of a Marti-type Frequency Dependent Parameter Line 2nd Generation
- SSN Simulation of a Frequency Dependent Parameter Line Marti-type
- SSN Iterative Models iMOV and iSWITCHES
- Time Stamped Bridge TSB TSB-RD and SSN-based Inverters
- Simulation of Thyristor Extinction Angles in SSN
- ARTEMiS-SSN Real-time Simulation of Back-to-back Current Source Inverters SSN
- ARTEMiS Three-Level NPC Inverter Simulation with Compensation of Switching Events using Inlined Time-Stamped Bridge SSN
- Real-Time Simulation of a 3-phase Inverter Using 3-level NPC Time Stamped Bridge TSB
- Inverter Simulation with Time Stamped Bridge TSB Inverter Block
- Large AC-DC-AC Drive with AFE Rectifier, Motor Drive Inverter and Paralleled TSB-RD Models
- 3-level NPC, T-type and Flying Capacitor Inverters Using TSB-RD Models
- ARTEMiS Switch Primer Selecting the Switch Model/Method/Solver
- Distribution Grid Using SSN and Delay-free Parallel Simulation
- Active Distribution Grid with High Penetration of Distributed Generation Using SSN R2015a and up
- ENEL Distribution Grid Simulated in Real-time Without Delays
- Small Distribution Grid with Multiple Fault Test Capability with Mutual Inductances
- Small Distribution Grid with Multiple Fault Test Capability
- Delay-free Real-time Simulation of Distribution Grid with 650 Nodes with OLTC Transformer
- Delay-free Real-time Simulation of a Distribution Grid with 650 Nodes
- IEEE 13-bus Stubline Compensation
- IEEE 123-bus Stubline Compensation
- Rotating Machine Using SSN
- PMSM Motor Drive with 9 kHz Vector Control and Open-Phase Testing Capability
- Snubber-Free Induction Machine Model in SSN
- SSN Asynchronous Machines IM and DFIM with Rotor Turn Ratio and no Parasitic Load Requirement
- SSN Synchronous Machine with Field Terminal and no Minimum Parasitic Load or Snubber Requirement
- SSN JMAG Spatial Harmonic PMSM
- SSN User Custom Models
- Custom User's Nodal Code in SSN Using an SSN External Group with Series-parallel Execution of SSN RT-LAB Compatible
- Custom User's Nodal Code Interface with SSN Using SSN External Group Feature
- Simple Inductance Nodal Code Using SSN External Group Feature
- Distributed Parameter Line with Variable Fault Location Using SSN Beta
- Dynamic Load Using SSN Nodal Admittance Method to Provide Higher Stability than SPS
- Series RLC Load with On-line Modifiable RLC Parameters
- Parallel RLC Load with Online Modifiable RLC Parameters
- Drive and On-board System Applications Using SSN
- IEEE standard models
- Power Grid applications using SSN
- MMC-based HVDC power system using SSN and Opal-RT specialized MMC blockset
- Kundur Four Machines 2 Areas Power System Using SSN Synchronous Machines R2015a and up
- 48-pulse STATCOM Using High Impedance Capable TSB and SSN
- Static VAR Compensator Mvars Thyristors-based 1 TSR-3 TSC Using SSN
- Bipolar 12-pulse HVDC link with switched filter banks and Firing Pulse compensation
- SSN Advanced Applications
- Reference Section About ARTEMiS and the SSN Solver
- Basic ARTEMiS-SSN Examples and Applications
- ARTEMiS and SSN Benchmarks
- Protection Relays
- Making SSN User Custom Blocks UCB
- ARTEMiS Release Notes
- Performance Benchmarks
- Application Notes
- Scientific Papers and References
- Smart Inverter Control Toolbox
The ARTEMiS Blockset is a performance-enhancing add-on to the SimPowerSystems Blockset that extends its capability for real-time simulation.
ARTEMiS has the following characteristics:
- Deterministically-bound fixed time step integration method suitable for real-time simulation
- Non-iterative execution appropriate for hardware-in-the-loop simulation
- High execution speed suitable for large-scale simulation
- Support for parallel processing suitable for distributed simulation in RT-LAB and eMEGAsim
- Superior numerical stability through the use of L-stable discretization methods
- Interpolation capability for increased precision in switched network
- State-Space Nodal (SSN) solver for real-time simulation without any limitation on the number of switches
Some SSN features:
- Can handle models with hundreds of switches in real-time
- Interpolation capability for Thyristors and IGBTs
- SSN enables parallelization of the nodal equations without delays in the solution
- SSN enables the user to incorporate their own models directly into the nodal solver without any delay in the solution
- SSN iteration capability on MOVs and Single Switches (new 2015)
- SSN benchmarked for 750 EMTP nodes distribution grid at 52µs on Xeon-v3 20 cores PCs (new 2015)
TSB-RD (with real-diode in rectification mode) for nanosecond accuracy in simulation of 2-level, 3-level NPC and 3-level T-type inverters (new 2018)
- Support parallelization (2-level)
- Snubber selection made more easy because of real-diode in rectification mode
- Equivalent nanosecond interpolation accuracy with RT-Events modulation or Digital Input with Time Stamping
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