LEVERAGING DIGITAL SOLUTIONS FOR NEW ENERGY SYSTEMS MODELLING AND OPTIMISATION

The paper addresses the limitations of traditional segmented approaches in modeling and optimizing energy systems, particularly in geothermal energy and carbon capture and sequestration (CCS).Historically, these systems were analyzed in isolation, with separate tools for subsurface and surface simulations, leading to inefficiencies and potential errors due to manual data transfer and inconsistencies between thermodynamic models.To overcome these challenges, the paper introduces an integrated "pore-to-process" workflow, which unifies reservoir simulation with process simulation platforms into a single, cohesive framework.This workflow enhances the accuracy and efficiency of system modeling by ensuring consistent thermodynamic calculations across both subsurface and surface components.By automating data transfer and reducing manual input, the workflow minimizes errors and computational overhead, allowing for real-time data sharing and holistic system optimization.The paper demonstrates the effectiveness of this approach in geothermal energy systems, where it improves efficiency by integrating subsurface dynamics with surface facility performance.

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Publication Details

Journal
Proceedings on Engineering Sciences
Published
2025-06-30
DOI
https://doi.org/10.24874/pes07.02a.003
Primary Topic
Smart Grid Energy Management
Type
article
Field-Weighted Citation Impact
0.00
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article

LEVERAGING DIGITAL SOLUTIONS FOR NEW ENERGY SYSTEMS MODELLING AND OPTIMISATION

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LEVERAGING DIGITAL SOLUTIONS FOR NEW ENERGY SYSTEMS MODELLING AND OPTIMISATION

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article en

Abstract

The paper addresses the limitations of traditional segmented approaches in modeling and optimizing energy systems, particularly in geothermal energy and carbon capture and sequestration (CCS).Historically, these systems were analyzed in isolation, with separate tools for subsurface and surface simulations, leading to inefficiencies and potential errors due to manual data transfer and inconsistencies between thermodynamic models.To overcome these challenges, the paper introduces an integrated "pore-to-process" workflow, which unifies reservoir simulation with process simulation platforms into a single, cohesive framework.This workflow enhances the accuracy and efficiency of system modeling by ensuring consistent thermodynamic calculations across both subsurface and surface components.By automating data transfer and reducing manual input, the workflow minimizes errors and computational overhead, allowing for real-time data sharing and holistic system optimization.The paper demonstrates the effectiveness of this approach in geothermal energy systems, where it improves efficiency by integrating subsurface dynamics with surface facility performance.

Proceedings on Engineering SciencesVol. 7(2)
Affordable and clean energy
Openalex Percentile: Top 86%
Smart Grid Energy Management
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