Effect of electric field on push-out strength of cemented steel pipes

Cement-steel interfacial strength is an important measure for estimating the robustness and hydraulic sealing ability of wells. In this paper, laboratory experiments were performed in which small steel pipes (10 mm in diameter) were cemented in place within a Portland cement slurry under application...

Full description

Bibliographic Details
Main Authors: Alexandre Lavrov, Benjamin Werner, Anna Stroisz, Thomas Monge Øia, Kamila Gawel, Malin Torsæter, Narjes Jafariesfad
Format: Article
Language:English
Published: AIMS Press 2021-05-01
Series:AIMS Materials Science
Subjects:
Online Access:https://www.aimspress.com/article/doi/10.3934/matersci.2021024?viewType=HTML
_version_ 1818620077763723264
author Alexandre Lavrov
Benjamin Werner
Anna Stroisz
Thomas Monge Øia
Kamila Gawel
Malin Torsæter
Narjes Jafariesfad
author_facet Alexandre Lavrov
Benjamin Werner
Anna Stroisz
Thomas Monge Øia
Kamila Gawel
Malin Torsæter
Narjes Jafariesfad
author_sort Alexandre Lavrov
collection DOAJ
description Cement-steel interfacial strength is an important measure for estimating the robustness and hydraulic sealing ability of wells. In this paper, laboratory experiments were performed in which small steel pipes (10 mm in diameter) were cemented in place within a Portland cement slurry under application of constant electrical potential difference between the pipes. The objective was to investigate whether there might be an observable difference between push-out strengths obtained with the pipes of different polarity (anode vs. cathode vs. reference nonpolarized pipe). The duration of the potential application and the magnitude of the potential difference were varied between the tests. The experiments demonstrated that at the higher potential difference (4 V), the duration of potential application had a noticeable effect on interfacial bonding. Application of 4 V for 24 h resulted in loss of bonding at cement-cathode interface, which could be attributed to massive water transportation to the cathode region by small radii cations. At the lower applied potential difference (1 V), there is an improvement in push-out strength at anode at short duration of potential application. This could be due to pore filling by precipitation of expansive minerals in pores and cement particles migration toward anode. The effect of potential on push-out strength in a hardened cement suggests that low potential difference applied for a short period of time might improve cement-steel interfacial strength.
first_indexed 2024-12-16T17:47:39Z
format Article
id doaj.art-58c247f5a71a4da4933dc21234a5b0cd
institution Directory Open Access Journal
issn 2372-0484
language English
last_indexed 2024-12-16T17:47:39Z
publishDate 2021-05-01
publisher AIMS Press
record_format Article
series AIMS Materials Science
spelling doaj.art-58c247f5a71a4da4933dc21234a5b0cd2022-12-21T22:22:24ZengAIMS PressAIMS Materials Science2372-04842021-05-018337338910.3934/matersci.2021024Effect of electric field on push-out strength of cemented steel pipesAlexandre Lavrov 0Benjamin Werner1Anna Stroisz2Thomas Monge Øia3Kamila Gawel4Malin Torsæter 5Narjes Jafariesfad61. SINTEF, Trondheim, Norway 2. Norwegian University of Science and Technology, Trondheim, Norway1. SINTEF, Trondheim, Norway1. SINTEF, Trondheim, Norway1. SINTEF, Trondheim, Norway3. Halliburton Completion Tools, Eldfiskvegen 1, Tananger 4056 Norway1. SINTEF, Trondheim, Norway1. SINTEF, Trondheim, Norway4. Norwegian University of Science and Technology, Trondheim, NorwayCement-steel interfacial strength is an important measure for estimating the robustness and hydraulic sealing ability of wells. In this paper, laboratory experiments were performed in which small steel pipes (10 mm in diameter) were cemented in place within a Portland cement slurry under application of constant electrical potential difference between the pipes. The objective was to investigate whether there might be an observable difference between push-out strengths obtained with the pipes of different polarity (anode vs. cathode vs. reference nonpolarized pipe). The duration of the potential application and the magnitude of the potential difference were varied between the tests. The experiments demonstrated that at the higher potential difference (4 V), the duration of potential application had a noticeable effect on interfacial bonding. Application of 4 V for 24 h resulted in loss of bonding at cement-cathode interface, which could be attributed to massive water transportation to the cathode region by small radii cations. At the lower applied potential difference (1 V), there is an improvement in push-out strength at anode at short duration of potential application. This could be due to pore filling by precipitation of expansive minerals in pores and cement particles migration toward anode. The effect of potential on push-out strength in a hardened cement suggests that low potential difference applied for a short period of time might improve cement-steel interfacial strength.https://www.aimspress.com/article/doi/10.3934/matersci.2021024?viewType=HTMLcementcement-steel bondingelectrical potentialpush-out strengthexperiment
spellingShingle Alexandre Lavrov
Benjamin Werner
Anna Stroisz
Thomas Monge Øia
Kamila Gawel
Malin Torsæter
Narjes Jafariesfad
Effect of electric field on push-out strength of cemented steel pipes
AIMS Materials Science
cement
cement-steel bonding
electrical potential
push-out strength
experiment
title Effect of electric field on push-out strength of cemented steel pipes
title_full Effect of electric field on push-out strength of cemented steel pipes
title_fullStr Effect of electric field on push-out strength of cemented steel pipes
title_full_unstemmed Effect of electric field on push-out strength of cemented steel pipes
title_short Effect of electric field on push-out strength of cemented steel pipes
title_sort effect of electric field on push out strength of cemented steel pipes
topic cement
cement-steel bonding
electrical potential
push-out strength
experiment
url https://www.aimspress.com/article/doi/10.3934/matersci.2021024?viewType=HTML
work_keys_str_mv AT alexandrelavrov effectofelectricfieldonpushoutstrengthofcementedsteelpipes
AT benjaminwerner effectofelectricfieldonpushoutstrengthofcementedsteelpipes
AT annastroisz effectofelectricfieldonpushoutstrengthofcementedsteelpipes
AT thomasmongeøia effectofelectricfieldonpushoutstrengthofcementedsteelpipes
AT kamilagawel effectofelectricfieldonpushoutstrengthofcementedsteelpipes
AT malintorsæter effectofelectricfieldonpushoutstrengthofcementedsteelpipes
AT narjesjafariesfad effectofelectricfieldonpushoutstrengthofcementedsteelpipes