A simplified method for experimentally quantifying crude oil swelling during immiscible carbon dioxide injection

Abstract Immiscible carbon dioxide (CO2) injection is one of the highly applied enhanced oil recovery (EOR) methods due to its high oil recovery potential and its ability to store CO2 in the reservoir. The main mechanism of immiscible CO2 injection is oil swelling. Generally, oil swelling is measure...

Full description

Bibliographic Details
Main Authors: Sherif Fakher, Abdulmohsin Imqam
Format: Article
Language:English
Published: SpringerOpen 2020-03-01
Series:Journal of Petroleum Exploration and Production Technology
Subjects:
Online Access:https://doi.org/10.1007/s13202-020-00867-8
id doaj-edb4ba59230247b5b151e7d0cd619596
record_format Article
spelling doaj-edb4ba59230247b5b151e7d0cd6195962021-03-14T12:11:41ZengSpringerOpenJournal of Petroleum Exploration and Production Technology2190-05582190-05662020-03-011073031304210.1007/s13202-020-00867-8A simplified method for experimentally quantifying crude oil swelling during immiscible carbon dioxide injectionSherif Fakher0Abdulmohsin Imqam1Missouri University of Science and TechnologyMissouri University of Science and TechnologyAbstract Immiscible carbon dioxide (CO2) injection is one of the highly applied enhanced oil recovery (EOR) methods due to its high oil recovery potential and its ability to store CO2 in the reservoir. The main mechanism of immiscible CO2 injection is oil swelling. Generally, oil swelling is measured experimentally or measured using modeling methods. This research conducts oil swelling experiments using a simplified method in order to easily and accurately measure oil swelling and determines some of the most significant factors that may impact oil swelling during CO2 injection. The impact of varying CO2 injection pressure, temperature, oil viscosity and oil volume on oil swelling capacity was investigated. The simplified method managed to accurately determine the value of oil swelling for all the experiments. One of the factors that was found to impact the method significantly was the oil volume used. The oil volume in the experimental vessel was found to be extremely important since a large oil volume may result in a false oil swelling value. The oil swelling results were compared to other researches and showed that the method applied had an accuracy of over 90% for all the results obtained. This research introduces a simple method that can be used to measure oil swelling and applies this method to investigate some of the factors that may impact the oil swelling capacity during immiscible CO2 injection.https://doi.org/10.1007/s13202-020-00867-8Oil swellingImmiscible carbon dioxide injectionNovel technique
collection DOAJ
language English
format Article
sources DOAJ
author Sherif Fakher
Abdulmohsin Imqam
spellingShingle Sherif Fakher
Abdulmohsin Imqam
A simplified method for experimentally quantifying crude oil swelling during immiscible carbon dioxide injection
Journal of Petroleum Exploration and Production Technology
Oil swelling
Immiscible carbon dioxide injection
Novel technique
author_facet Sherif Fakher
Abdulmohsin Imqam
author_sort Sherif Fakher
title A simplified method for experimentally quantifying crude oil swelling during immiscible carbon dioxide injection
title_short A simplified method for experimentally quantifying crude oil swelling during immiscible carbon dioxide injection
title_full A simplified method for experimentally quantifying crude oil swelling during immiscible carbon dioxide injection
title_fullStr A simplified method for experimentally quantifying crude oil swelling during immiscible carbon dioxide injection
title_full_unstemmed A simplified method for experimentally quantifying crude oil swelling during immiscible carbon dioxide injection
title_sort simplified method for experimentally quantifying crude oil swelling during immiscible carbon dioxide injection
publisher SpringerOpen
series Journal of Petroleum Exploration and Production Technology
issn 2190-0558
2190-0566
publishDate 2020-03-01
description Abstract Immiscible carbon dioxide (CO2) injection is one of the highly applied enhanced oil recovery (EOR) methods due to its high oil recovery potential and its ability to store CO2 in the reservoir. The main mechanism of immiscible CO2 injection is oil swelling. Generally, oil swelling is measured experimentally or measured using modeling methods. This research conducts oil swelling experiments using a simplified method in order to easily and accurately measure oil swelling and determines some of the most significant factors that may impact oil swelling during CO2 injection. The impact of varying CO2 injection pressure, temperature, oil viscosity and oil volume on oil swelling capacity was investigated. The simplified method managed to accurately determine the value of oil swelling for all the experiments. One of the factors that was found to impact the method significantly was the oil volume used. The oil volume in the experimental vessel was found to be extremely important since a large oil volume may result in a false oil swelling value. The oil swelling results were compared to other researches and showed that the method applied had an accuracy of over 90% for all the results obtained. This research introduces a simple method that can be used to measure oil swelling and applies this method to investigate some of the factors that may impact the oil swelling capacity during immiscible CO2 injection.
topic Oil swelling
Immiscible carbon dioxide injection
Novel technique
url https://doi.org/10.1007/s13202-020-00867-8
work_keys_str_mv AT sheriffakher asimplifiedmethodforexperimentallyquantifyingcrudeoilswellingduringimmisciblecarbondioxideinjection
AT abdulmohsinimqam asimplifiedmethodforexperimentallyquantifyingcrudeoilswellingduringimmisciblecarbondioxideinjection
AT sheriffakher simplifiedmethodforexperimentallyquantifyingcrudeoilswellingduringimmisciblecarbondioxideinjection
AT abdulmohsinimqam simplifiedmethodforexperimentallyquantifyingcrudeoilswellingduringimmisciblecarbondioxideinjection
_version_ 1724221622074736640