Practical Application of Grid Forming Converter for a Resilient, Stable and Secure Grid
* 21PESGM2326, Grid-Forming Converter Systems “ Stability Enhancement for the Modern Power System: F. PAGE, MEPPI * 21PESGM2328, Grid Forming Control for Power Quality Solutions &,ndash, Requirements and Performance: H. ZHANG, Hitachi ABB Power Grid, L. BESSEGATO, Hitachi ABB Power Grid, R. HEYDARI, Hitachi ABB Power Grid, C. DANIELSSON, Hitachi ABB Power Grid, L. MENG, Hitachi ABB Power Grids * 21PESGM2976, HVDC and FACTS Power Electronic Converters Enable Grid Following, Firming and Forming: A. ADAMCZYK, GE * 21PESGM2977, Grid forming STATCOM &,ndash, Configuration and Performance Requirements: S. KYNEV, Siemens Energy * 21PESGM2980, Grid Forming Control Performance Requirement “ German TSO Perspective: T. NEUMANN, Amprion
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PES
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The transition from synchronous generation based to converter dominated power grids has raised the awareness of need for comprehensive grid support. As a result, grid forming feature is emerging as a requirement to power converters in different applications, such as HVDC, FACTS, microgrids, grid interties, etc. A grid forming converter, in general, denotes a converter with the capability to control the terminal voltage frequency and amplitude to form the grid voltage, thus being able to provide steady-state and/or transient grid support, i.e. inertia enhancement, frequency response, voltage control and system strength. The grid forming feature is deemed as essential for the grid resiliency, stability and security. However, the implementation, performance requirements, system impact and testing/assessment methodology are not yet standardized and may differ between applications. This panel discusses practical application of GFCs including: - Practical configurations - Performance requirements - Field experience
Chairs:
Andrew Steffen, Sargent &, Lundy, Daniel Hill, Black &, Veatch
Sponsor Committees:
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