
Niklas Eiling developed advanced real-time simulation and FPGA co-simulation features for the sogno-platform/dpsim repository, focusing on power systems modeling and hardware-in-the-loop workflows. He engineered C++ modules for data logging, event-driven FPGA integration, and performance optimization, leveraging CMake for build configuration and Python bindings for user accessibility. His work included enhancements to system topology visualization, stability improvements for FPGA-based simulations, and detailed documentation for real-time deployment. By addressing portability, error handling, and numerical stability, Niklas delivered robust, maintainable solutions that improved simulation fidelity, accelerated iteration cycles, and enabled seamless integration of Python-based workflows for power system engineers.
February 2025 monthly summary: Delivered focused documentation enhancements for real-time simulation in sogno-platform/dpsim, strengthening platform reliability and developer onboarding. No major bugs fixed this period. The documentation updates clarify OS tuning for real-time performance and provide detailed configuration and usage guidance for queued and queueless VILLASnode interfaces, including new examples for advanced real-time setups. These changes reduce deployment risk and accelerate productive use of real-time features across customer deployments.
February 2025 monthly summary: Delivered focused documentation enhancements for real-time simulation in sogno-platform/dpsim, strengthening platform reliability and developer onboarding. No major bugs fixed this period. The documentation updates clarify OS tuning for real-time performance and provide detailed configuration and usage guidance for queued and queueless VILLASnode interfaces, including new examples for advanced real-time setups. These changes reduce deployment risk and accelerate productive use of real-time features across customer deployments.
January 2025 (2025-01) monthly summary for sogno-platform/dpsim: Delivered stability, performance, and usability improvements with targeted fixes and Python accessibility enhancements. The changes improve correctness of simulations, enable Python-based data logging workflows, and strengthen GPU-accelerated calculations, contributing to faster troubleshooting and more reliable deployments.
January 2025 (2025-01) monthly summary for sogno-platform/dpsim: Delivered stability, performance, and usability improvements with targeted fixes and Python accessibility enhancements. The changes improve correctness of simulations, enable Python-based data logging workflows, and strengthen GPU-accelerated calculations, contributing to faster troubleshooting and more reliable deployments.
Month: 2024-12 | Repository: sogno-platform/dpsim Key features delivered: - Simulation performance optimization and VBR modeling enhancements: Implemented experimental compile flags in CMake (RelWithDebInfo) to accelerate simulation runtime. Updated HIL example to support VBR (Voltage-Based Representation) generator with dynamic full models, VBR-specific generator and exciter parameters for GEN1-3, adjusted current offset, and enabled system matrix recomputation for faster, more accurate simulations. Major bugs fixed: - None reported this month; efforts centered on performance improvements and feature enhancements. Overall impact and accomplishments: - Business value: Significantly faster simulation turnaround enables more iterations, larger-scale studies, and quicker validation of modeling changes, improving time-to-insight for development and testing. - Technical impact: Performance-focused refactors and new VBR support improved fidelity and throughput, enabling more accurate and scalable simulations with tighter numerical stability. Technologies/skills demonstrated: - CMake and build optimization (RelWithDebInfo flags) - HIL testing and workflow adaptations - VBR modeling and parameterization (GEN1-3, exciters) - Dynamic full models and system matrix recomputation - Numerical stability considerations (current offset adjustments) - Performance engineering and impact analysis
Month: 2024-12 | Repository: sogno-platform/dpsim Key features delivered: - Simulation performance optimization and VBR modeling enhancements: Implemented experimental compile flags in CMake (RelWithDebInfo) to accelerate simulation runtime. Updated HIL example to support VBR (Voltage-Based Representation) generator with dynamic full models, VBR-specific generator and exciter parameters for GEN1-3, adjusted current offset, and enabled system matrix recomputation for faster, more accurate simulations. Major bugs fixed: - None reported this month; efforts centered on performance improvements and feature enhancements. Overall impact and accomplishments: - Business value: Significantly faster simulation turnaround enables more iterations, larger-scale studies, and quicker validation of modeling changes, improving time-to-insight for development and testing. - Technical impact: Performance-focused refactors and new VBR support improved fidelity and throughput, enabling more accurate and scalable simulations with tighter numerical stability. Technologies/skills demonstrated: - CMake and build optimization (RelWithDebInfo flags) - HIL testing and workflow adaptations - VBR modeling and parameterization (GEN1-3, exciters) - Dynamic full models and system matrix recomputation - Numerical stability considerations (current offset adjustments) - Performance engineering and impact analysis
November 2024 focused on delivering core PHIL/co-simulation components and expanding FPGA-based HIL capabilities, while improving topology visualization, robustness, and portability. Key back-end work includes pybind bindings for new electrical models, new co-simulation examples (3-phase infinite bus and 9-bus HIL), enhanced system topology descriptions and event support, plus stability and safety improvements that reduce risk in production deployments. These changes enable more accurate real-time emulation, smoother PHIL integration, and lower maintenance costs due to portable paths and null-pointer safety.
November 2024 focused on delivering core PHIL/co-simulation components and expanding FPGA-based HIL capabilities, while improving topology visualization, robustness, and portability. Key back-end work includes pybind bindings for new electrical models, new co-simulation examples (3-phase infinite bus and 9-bus HIL), enhanced system topology descriptions and event support, plus stability and safety improvements that reduce risk in production deployments. These changes enable more accurate real-time emulation, smoother PHIL integration, and lower maintenance costs due to portable paths and null-pointer safety.
October 2024 monthly summary highlighting delivered features, fixes, and impact for sogno-platform/dpsim. Key work focused on real-time observability, FPGA co-simulation interoperability, and solver reliability enhancements that directly elevate data fidelity, performance visibility, and integration with FPGA-based validation workflows.
October 2024 monthly summary highlighting delivered features, fixes, and impact for sogno-platform/dpsim. Key work focused on real-time observability, FPGA co-simulation interoperability, and solver reliability enhancements that directly elevate data fidelity, performance visibility, and integration with FPGA-based validation workflows.

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