Multi-Domain Power and Thermo-Fluid System Stability Modeling using Modelica and OpenIPSL

This paper presents the a set of multi-domain load models that allow simulating the dynamics of coalesced electrical power and the thermo-fluid system by exploiting the Modelica language based on the Modelica OpenIPSL power system library. This allows for phasor domain representation of the electrical grid, such as that used in de facto power system stability software, to be combined with the electro-mechanical (e.g. motor-drive) and thermo-fluid representation of the load (e.g. heat pumps and pipes). The added dynamics of the thermo-fluid and mechanical interfaces allow for simulating the transient effects of disturbances of the load explicitly by following its own constitutive physics, thereby enabling dynamic interaction between electrical and hydraulic contingencies. The modeled components are described with emphasis on how they are modeled in Modelica and were tested for different electrical and fluid-flow contingencies, demonstrating their usability and their viability in representing higher fidelity multi-domain load systems.

Published in: 2022 IEEE Power & Energy Society General Meeting (PESGM)

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Work Title Multi-Domain Power and Thermo-Fluid System Stability Modeling using Modelica and OpenIPSL
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Open Access
Creators
  1. Fernando Fachini
  2. Marcelo De Castro
  3. Mingzhe Liu
  4. Tetiana Bogodorova
  5. Luigi Vanfretti
  6. Wangda Zuo
Keyword
  1. Multi-domain
  2. Power and thermo-fluid system
  3. Dynamics
  4. OpenIPSL
  5. Phasor domain representation
License In Copyright (Rights Reserved)
Work Type Conference Proceeding
Publication Date October 27, 2022
Publisher Identifier (DOI)
  1. https://doi.org/10.1109/pesgm48719.2022.9917073
Deposited May 10, 2024

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Version 1
published

  • Created
  • Added CP205_Fernando_etal_Multi_Domain_BuildingLoads_with_ResponseToReviewers.pdf
  • Added Creator Fernando Fachini
  • Added Creator Marcelo De Castro
  • Added Creator Mingzhe Liu
  • Added Creator Tetiana Bogodorova
  • Added Creator Luigi Vanfretti
  • Added Creator Wangda Zuo
  • Published
  • Updated
  • Updated Keyword, Publisher, Description, and 1 more Show Changes
    Keyword
    • Multi-domain, Power and thermo-fluid system, Dynamics, OpenIPSL, Phasor domain representation
    Publisher
    • 2022 IEEE Power & Energy Society General Meeting (PESGM)
    Description
    • This paper presents the a set of multi-domain load models that allow simulating the dynamics of coalesced electrical power and the thermo-fluid system by exploiting the Modelica language based on the Modelica OpenIPSL power system library. This allows for phasor domain representation of the electrical grid, such as that used in de facto power system stability software, to be combined with the electro-mechanical (e.g. motor-drive) and thermo-fluid representation of the load (e.g. heat pumps and pipes). The added dynamics of the thermo-fluid and mechanical interfaces allow for simulating the transient effects of disturbances of the load explicitly by following its own constitutive physics, thereby enabling dynamic interaction between electrical and hydraulic contingencies. The modeled components are described with emphasis on how they are modeled in Modelica and were tested for different electrical and fluid-flow contingencies, demonstrating their usability and their viability in representing higher fidelity multi-domain load systems.
    • This paper presents the a set of multi-domain load models that allow simulating the dynamics of coalesced electrical power and the thermo-fluid system by exploiting the Modelica language based on the Modelica OpenIPSL power system library. This allows for phasor domain representation of the electrical grid, such as that used in de facto power system stability software, to be combined with the electro-mechanical (e.g. motor-drive) and thermo-fluid representation of the load (e.g. heat pumps and pipes). The added dynamics of the thermo-fluid and mechanical interfaces allow for simulating the transient effects of disturbances of the load explicitly by following its own constitutive physics, thereby enabling dynamic interaction between electrical and hydraulic contingencies. The modeled components are described with emphasis on how they are modeled in Modelica and were tested for different electrical and fluid-flow contingencies, demonstrating their usability and their viability in representing higher fidelity multi-domain load systems.
    • Published in: 2022 IEEE Power & Energy Society General Meeting (PESGM)
    Publication Date
    • 2022-07-17
    • 2022-10-27

Version 2
published

  • Created
  • Deleted CP205_Fernando_etal_Multi_Domain_BuildingLoads_with_ResponseToReviewers.pdf
  • Added Multi-Domain_Power_and_Thermo-Fluid_System_Stability_Modeling_using_Modelica_and_OpenIPSL.pdf
  • Published
  • Updated