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Observing, Modelling and Predicting in situ Petrophysical Parameter Evolution in a Geologic Carbon Storage System

Sector: Education • Location: Denmark

Source: EU Funding & Tenders Portal

Project
Ended

Geologic Carbon Storage (GCS) is a promising remedial activity that society can use to tackle imminent problems from increased atmospheric CO2 and climate change. The fate and transport of the stored CO2 are controlled by a storage formation’s petrophysical parameters, which evolve rapidly after the CO2 injection because of geochemical reactions. Knowing how the pore structure evolves is critical

Status
Closed
Sector
Education, Nuclear, Chemical (Industrial), Manufacturing (Industrial)
Location
Denmark
Updated
22 Jul 2026
Source
EU Funding & Tenders Portal

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The project “Observing, Modelling and Predicting in situ Petrophysical Parameter Evolution in a Geologic Carbon Storage System” is an infrastructure initiative in the Education sector, located in Denmark. Taiyo aggregates data on it from EU Funding & Tenders Portal.

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Not available for this record.

Status

Original status

ended

Taiyo status

Closed

Taiyo last update

2026-07-22

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Not available for this record.

Description

Description

Geologic Carbon Storage (GCS) is a promising remedial activity that society can use to tackle imminent problems from increased atmospheric CO2 and climate change. The fate and transport of the stored CO2 are controlled by a storage formation’s petrophysical parameters, which evolve rapidly after the CO2 injection because of geochemical reactions. Knowing how the pore structure evolves is critical to the safe and effective implementation of GCS because it affects the sealing integrity, injectivity and storage capacity of a geologic site. How such evolution can be quantified is still unknown, because of the technological difficulties in direct observation within pores and the high computational cost required to predict such evolution based on current modelling approaches. My project will pioneer the study of GCS-related petrophysical parameter evolution by combining synchrotron based nanotomography with a highly customizable reactor network model. Tomography enables the in situ observation of the porous media’s morphological evolution that leads to petrophysical property changes. The reactor network model can significantly reduce computational costs for predicting parameter evolution. OMNICS builds on a combination of my expertise in GCS-related research and chemical reactor design with my host’s world leading nanostructure characterization facilities and cutting edge interdisciplinary research profile. Strong industry links provided by my host means that my new prediction technique will provide direct guidance for site selection, risk assessment and injection management, pushing the technological readiness level of GCS from applied research towards market relevant implementation as a technical support service. Meanwhile, the training, mentoring and support offered by my advisor, Prof. S. Stipp, will broaden my expertise, sharpen my competences and extend my research network, which will help me secure a academic position in Europe by fully realizing my potential.

Location

Country

Denmark

Source

Source

EU Funding & Tenders Portal

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Record type

Project

Sector

Education, Nuclear, Chemical (Industrial), Manufacturing (Industrial)

Article published date

2026-01-01

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