Impacts of geological store uncertainties on the design and operation of flexible CCS offshore pipeline infrastructure

Eva Sanchez Fernandez, Mark Naylor, Mathieu Lucquiaud, Ben Wetenhall, Hamed Aghajani, Julia Race, Hannah Chalmers

Research output: Contribution to journalArticle

7 Citations (Scopus)

Abstract

Planning for Carbon Capture and Storage (CCS) infrastructure needs to address the impact of store uncertainties and store flow variability on infrastructure costs and availability. Key geological storage properties (pressure, temperature, depth and permeability) can affect injectivity and lead to variations in CO2 flow, which feed back into the pipeline transportation system. In previous storage models, the interface between the reservoir performance and the transportation infrastructure is unclear and the models are unable to provide details for flow and pressure management within a transportation network in response to changes in the operation of storage sites. Variation in storage demand due to daily and seasonal variations of fossil fuels uses and by extension CO2 flow is also likely to influence transportation infrastructure availability and the capacity to deliver. This work examines, at the level of infrastructure planning, the impact of store properties on CCS transportation and injection infrastructure in the context of flow variability. Different off-shore transportation scenarios, relevant to CCS in the UK, are evaluated using rigorous process modelling tools. Considering flow variations of ±50% of a given baseline flow, the results of the analysis indicate that enabling store flexibility is simpler in reservoirs with an initial pressure above 20 MPa. Wellhead conditions are influenced significantly by subsurface conditions. The operational envelope of the storage site is limited by the proximity of wellhead conditions to the CO2 phase equilibrium line and the maximum fluid velocities inside the well. Given reductions in reservoir permeability, the requirements for pressure delivery are strongly dependent on the reservoir temperature. This work provides detailed insight on the expected impacts of store properties on transportation infrastructure design and operation.
LanguageEnglish
Pages139–154
Number of pages16
JournalInternational Journal of Greenhouse Gas Control
Volume52
DOIs
Publication statusPublished - 16 Jul 2016

Fingerprint

Offshore pipelines
Carbon capture
infrastructure
carbon
transportation infrastructure
Wellheads
wellhead
Availability
Planning
permeability
infrastructure planning
equilibrium line
Uncertainty
Fossil fuels
transportation system
Phase equilibria
phase equilibrium
diurnal variation
fossil fuel
Pipelines

Keywords

  • Co2 offshore storage
  • injection rates
  • delivery pressure
  • infrastructure development
  • well modelling
  • uncertainties
  • derisking

Cite this

Sanchez Fernandez, Eva ; Naylor, Mark ; Lucquiaud, Mathieu ; Wetenhall, Ben ; Aghajani, Hamed ; Race, Julia ; Chalmers, Hannah. / Impacts of geological store uncertainties on the design and operation of flexible CCS offshore pipeline infrastructure. In: International Journal of Greenhouse Gas Control . 2016 ; Vol. 52. pp. 139–154.
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abstract = "Planning for Carbon Capture and Storage (CCS) infrastructure needs to address the impact of store uncertainties and store flow variability on infrastructure costs and availability. Key geological storage properties (pressure, temperature, depth and permeability) can affect injectivity and lead to variations in CO2 flow, which feed back into the pipeline transportation system. In previous storage models, the interface between the reservoir performance and the transportation infrastructure is unclear and the models are unable to provide details for flow and pressure management within a transportation network in response to changes in the operation of storage sites. Variation in storage demand due to daily and seasonal variations of fossil fuels uses and by extension CO2 flow is also likely to influence transportation infrastructure availability and the capacity to deliver. This work examines, at the level of infrastructure planning, the impact of store properties on CCS transportation and injection infrastructure in the context of flow variability. Different off-shore transportation scenarios, relevant to CCS in the UK, are evaluated using rigorous process modelling tools. Considering flow variations of ±50{\%} of a given baseline flow, the results of the analysis indicate that enabling store flexibility is simpler in reservoirs with an initial pressure above 20 MPa. Wellhead conditions are influenced significantly by subsurface conditions. The operational envelope of the storage site is limited by the proximity of wellhead conditions to the CO2 phase equilibrium line and the maximum fluid velocities inside the well. Given reductions in reservoir permeability, the requirements for pressure delivery are strongly dependent on the reservoir temperature. This work provides detailed insight on the expected impacts of store properties on transportation infrastructure design and operation.",
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Impacts of geological store uncertainties on the design and operation of flexible CCS offshore pipeline infrastructure. / Sanchez Fernandez, Eva; Naylor, Mark; Lucquiaud, Mathieu; Wetenhall, Ben; Aghajani, Hamed; Race, Julia; Chalmers, Hannah.

In: International Journal of Greenhouse Gas Control , Vol. 52, 16.07.2016, p. 139–154.

Research output: Contribution to journalArticle

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