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A comparison of methods to harmonize cortical thickness measurements across scanners and sites

Results of neuroimaging datasets aggregated from multiple sites may be biased by site-specific profiles in participants’ demographic and clinical characteristics, as well as MRI acquisition protocols and scanning platforms. We compared the impact of four different harmonization methods on results ob...

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Autores principales: Sun, Delin, Rakesh, Gopalkumar, Haswell, Courtney C., Logue, Mark, Baird, C. Lexi, O’Leary, Erin N., Cotton, Andrew S., Xie, Hong, Tamburrino, Marijo, Chen, Tian, Dennis, Emily L., Jahanshad, Neda, Salminen, Lauren E., Thomopoulos, Sophia I., Rashid, Faisal, Ching, Christopher R.K., Koch, Saskia B.J., Frijling, Jessie L., Nawijn, Laura, van Zuiden, Mirjam, Zhu, Xi, Suarez-Jimenez, Benjamin, Sierk, Anika, Walter, Henrik, Manthey, Antje, Stevens, Jennifer S., Fani, Negar, van Rooij, Sanne J.H., Stein, Murray, Bomyea, Jessica, Koerte, Inga K., Choi, Kyle, van der Werff, Steven J.A., Vermeiren, Robert R.J.M., Herzog, Julia, Lebois, Lauren A.M., Baker, Justin T., Olson, Elizabeth A., Straube, Thomas, Korgaonkar, Mayuresh S., Andrew, Elpiniki, Zhu, Ye, Li, Gen, Ipser, Jonathan, Hudson, Anna R., Peverill, Matthew, Sambrook, Kelly, Gordon, Evan, Baugh, Lee, Forster, Gina, Simons, Raluca M., Simons, Jeffrey S., Magnotta, Vincent, Maron-Katz, Adi, du Plessis, Stefan, Disner, Seth G., Davenport, Nicholas, Grupe, Daniel W., Nitschke, Jack B., deRoon-Cassini, Terri A., Fitzgerald, Jacklynn M., Krystal, John H., Levy, Ifat, Olff, Miranda, Veltman, Dick J., Wang, Li, Neria, Yuval, De Bellis, Michael D., Jovanovic, Tanja, Daniels, Judith K., Shenton, Martha, van de Wee, Nic J.A., Schmahl, Christian, Kaufman, Milissa L., Rosso, Isabelle M., Sponheim, Scott R., Hofmann, David Bernd, Bryant, Richard A., Fercho, Kelene A., Stein, Dan J., Mueller, Sven C., Hosseini, Bobak, Phan, K. Luan, McLaughlin, Katie A., Davidson, Richard J., Larson, Christine L., May, Geoffrey, Nelson, Steven M., Abdallah, Chadi G., Gomaa, Hassaan, Etkin, Amit, Seedat, Soraya, Harpaz-Rotem, Ilan, Liberzon, Israel, van Erp, Theo G.M., Quidé, Yann, Wang, Xin, Thompson, Paul M., Morey, Rajendra A.
Formato: Online Artículo Texto
Lenguaje:English
Publicado: 2022
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9648725/
https://www.ncbi.nlm.nih.gov/pubmed/35917919
http://dx.doi.org/10.1016/j.neuroimage.2022.119509
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author Sun, Delin
Rakesh, Gopalkumar
Haswell, Courtney C.
Logue, Mark
Baird, C. Lexi
O’Leary, Erin N.
Cotton, Andrew S.
Xie, Hong
Tamburrino, Marijo
Chen, Tian
Dennis, Emily L.
Jahanshad, Neda
Salminen, Lauren E.
Thomopoulos, Sophia I.
Rashid, Faisal
Ching, Christopher R.K.
Koch, Saskia B.J.
Frijling, Jessie L.
Nawijn, Laura
van Zuiden, Mirjam
Zhu, Xi
Suarez-Jimenez, Benjamin
Sierk, Anika
Walter, Henrik
Manthey, Antje
Stevens, Jennifer S.
Fani, Negar
van Rooij, Sanne J.H.
Stein, Murray
Bomyea, Jessica
Koerte, Inga K.
Choi, Kyle
van der Werff, Steven J.A.
Vermeiren, Robert R.J.M.
Herzog, Julia
Lebois, Lauren A.M.
Baker, Justin T.
Olson, Elizabeth A.
Straube, Thomas
Korgaonkar, Mayuresh S.
Andrew, Elpiniki
Zhu, Ye
Li, Gen
Ipser, Jonathan
Hudson, Anna R.
Peverill, Matthew
Sambrook, Kelly
Gordon, Evan
Baugh, Lee
Forster, Gina
Simons, Raluca M.
Simons, Jeffrey S.
Magnotta, Vincent
Maron-Katz, Adi
du Plessis, Stefan
Disner, Seth G.
Davenport, Nicholas
Grupe, Daniel W.
Nitschke, Jack B.
deRoon-Cassini, Terri A.
Fitzgerald, Jacklynn M.
Krystal, John H.
Levy, Ifat
Olff, Miranda
Veltman, Dick J.
Wang, Li
Neria, Yuval
De Bellis, Michael D.
Jovanovic, Tanja
Daniels, Judith K.
Shenton, Martha
van de Wee, Nic J.A.
Schmahl, Christian
Kaufman, Milissa L.
Rosso, Isabelle M.
Sponheim, Scott R.
Hofmann, David Bernd
Bryant, Richard A.
Fercho, Kelene A.
Stein, Dan J.
Mueller, Sven C.
Hosseini, Bobak
Phan, K. Luan
McLaughlin, Katie A.
Davidson, Richard J.
Larson, Christine L.
May, Geoffrey
Nelson, Steven M.
Abdallah, Chadi G.
Gomaa, Hassaan
Etkin, Amit
Seedat, Soraya
Harpaz-Rotem, Ilan
Liberzon, Israel
van Erp, Theo G.M.
Quidé, Yann
Wang, Xin
Thompson, Paul M.
Morey, Rajendra A.
author_facet Sun, Delin
Rakesh, Gopalkumar
Haswell, Courtney C.
Logue, Mark
Baird, C. Lexi
O’Leary, Erin N.
Cotton, Andrew S.
Xie, Hong
Tamburrino, Marijo
Chen, Tian
Dennis, Emily L.
Jahanshad, Neda
Salminen, Lauren E.
Thomopoulos, Sophia I.
Rashid, Faisal
Ching, Christopher R.K.
Koch, Saskia B.J.
Frijling, Jessie L.
Nawijn, Laura
van Zuiden, Mirjam
Zhu, Xi
Suarez-Jimenez, Benjamin
Sierk, Anika
Walter, Henrik
Manthey, Antje
Stevens, Jennifer S.
Fani, Negar
van Rooij, Sanne J.H.
Stein, Murray
Bomyea, Jessica
Koerte, Inga K.
Choi, Kyle
van der Werff, Steven J.A.
Vermeiren, Robert R.J.M.
Herzog, Julia
Lebois, Lauren A.M.
Baker, Justin T.
Olson, Elizabeth A.
Straube, Thomas
Korgaonkar, Mayuresh S.
Andrew, Elpiniki
Zhu, Ye
Li, Gen
Ipser, Jonathan
Hudson, Anna R.
Peverill, Matthew
Sambrook, Kelly
Gordon, Evan
Baugh, Lee
Forster, Gina
Simons, Raluca M.
Simons, Jeffrey S.
Magnotta, Vincent
Maron-Katz, Adi
du Plessis, Stefan
Disner, Seth G.
Davenport, Nicholas
Grupe, Daniel W.
Nitschke, Jack B.
deRoon-Cassini, Terri A.
Fitzgerald, Jacklynn M.
Krystal, John H.
Levy, Ifat
Olff, Miranda
Veltman, Dick J.
Wang, Li
Neria, Yuval
De Bellis, Michael D.
Jovanovic, Tanja
Daniels, Judith K.
Shenton, Martha
van de Wee, Nic J.A.
Schmahl, Christian
Kaufman, Milissa L.
Rosso, Isabelle M.
Sponheim, Scott R.
Hofmann, David Bernd
Bryant, Richard A.
Fercho, Kelene A.
Stein, Dan J.
Mueller, Sven C.
Hosseini, Bobak
Phan, K. Luan
McLaughlin, Katie A.
Davidson, Richard J.
Larson, Christine L.
May, Geoffrey
Nelson, Steven M.
Abdallah, Chadi G.
Gomaa, Hassaan
Etkin, Amit
Seedat, Soraya
Harpaz-Rotem, Ilan
Liberzon, Israel
van Erp, Theo G.M.
Quidé, Yann
Wang, Xin
Thompson, Paul M.
Morey, Rajendra A.
author_sort Sun, Delin
collection PubMed
description Results of neuroimaging datasets aggregated from multiple sites may be biased by site-specific profiles in participants’ demographic and clinical characteristics, as well as MRI acquisition protocols and scanning platforms. We compared the impact of four different harmonization methods on results obtained from analyses of cortical thickness data: (1) linear mixed-effects model (LME) that models site-specific random intercepts (LME(INT)), (2) LME that models both site-specific random intercepts and age-related random slopes (LME(INT+SLP)), (3) ComBat, and (4) ComBat with a generalized additive model (ComBat-GAM). Our test case for comparing harmonization methods was cortical thickness data aggregated from 29 sites, which included 1,340 cases with posttraumatic stress disorder (PTSD) (6.2–81.8 years old) and 2,057 trauma-exposed controls without PTSD (6.3–85.2 years old). We found that, compared to the other data harmonization methods, data processed with ComBat-GAM was more sensitive to the detection of significant case-control differences (X(2)(3) = 63.704, p < 0.001) as well as case-control differences in age-related cortical thinning (X(2)(3) = 12.082, p = 0.007). Both ComBat and ComBat-GAM outperformed LME methods in detecting sex differences (X(2)(3) = 9.114, p = 0.028) in regional cortical thickness. ComBat-GAM also led to stronger estimates of age-related declines in cortical thickness (corrected p-values < 0.001 ), stronger estimates of case-related cortical thickness reduction (corrected p-values < 0.001 ), weaker estimates of age-related declines in cortical thickness in cases than controls (corrected p-values < 0.001 ), stronger estimates of cortical thickness reduction in females than males (corrected p-values < 0.001 ), and stronger estimates of cortical thickness reduction in females relative to males in cases than controls (corrected p-values < 0.001 ). Our results support the use of ComBat-GAM to minimize confounds and increase statistical power when harmonizing data with non-linear effects, and the use of either ComBat or ComBat-GAM for harmonizing data with linear effects.
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spelling pubmed-96487252022-11-14 A comparison of methods to harmonize cortical thickness measurements across scanners and sites Sun, Delin Rakesh, Gopalkumar Haswell, Courtney C. Logue, Mark Baird, C. Lexi O’Leary, Erin N. Cotton, Andrew S. Xie, Hong Tamburrino, Marijo Chen, Tian Dennis, Emily L. Jahanshad, Neda Salminen, Lauren E. Thomopoulos, Sophia I. Rashid, Faisal Ching, Christopher R.K. Koch, Saskia B.J. Frijling, Jessie L. Nawijn, Laura van Zuiden, Mirjam Zhu, Xi Suarez-Jimenez, Benjamin Sierk, Anika Walter, Henrik Manthey, Antje Stevens, Jennifer S. Fani, Negar van Rooij, Sanne J.H. Stein, Murray Bomyea, Jessica Koerte, Inga K. Choi, Kyle van der Werff, Steven J.A. Vermeiren, Robert R.J.M. Herzog, Julia Lebois, Lauren A.M. Baker, Justin T. Olson, Elizabeth A. Straube, Thomas Korgaonkar, Mayuresh S. Andrew, Elpiniki Zhu, Ye Li, Gen Ipser, Jonathan Hudson, Anna R. Peverill, Matthew Sambrook, Kelly Gordon, Evan Baugh, Lee Forster, Gina Simons, Raluca M. Simons, Jeffrey S. Magnotta, Vincent Maron-Katz, Adi du Plessis, Stefan Disner, Seth G. Davenport, Nicholas Grupe, Daniel W. Nitschke, Jack B. deRoon-Cassini, Terri A. Fitzgerald, Jacklynn M. Krystal, John H. Levy, Ifat Olff, Miranda Veltman, Dick J. Wang, Li Neria, Yuval De Bellis, Michael D. Jovanovic, Tanja Daniels, Judith K. Shenton, Martha van de Wee, Nic J.A. Schmahl, Christian Kaufman, Milissa L. Rosso, Isabelle M. Sponheim, Scott R. Hofmann, David Bernd Bryant, Richard A. Fercho, Kelene A. Stein, Dan J. Mueller, Sven C. Hosseini, Bobak Phan, K. Luan McLaughlin, Katie A. Davidson, Richard J. Larson, Christine L. May, Geoffrey Nelson, Steven M. Abdallah, Chadi G. Gomaa, Hassaan Etkin, Amit Seedat, Soraya Harpaz-Rotem, Ilan Liberzon, Israel van Erp, Theo G.M. Quidé, Yann Wang, Xin Thompson, Paul M. Morey, Rajendra A. Neuroimage Article Results of neuroimaging datasets aggregated from multiple sites may be biased by site-specific profiles in participants’ demographic and clinical characteristics, as well as MRI acquisition protocols and scanning platforms. We compared the impact of four different harmonization methods on results obtained from analyses of cortical thickness data: (1) linear mixed-effects model (LME) that models site-specific random intercepts (LME(INT)), (2) LME that models both site-specific random intercepts and age-related random slopes (LME(INT+SLP)), (3) ComBat, and (4) ComBat with a generalized additive model (ComBat-GAM). Our test case for comparing harmonization methods was cortical thickness data aggregated from 29 sites, which included 1,340 cases with posttraumatic stress disorder (PTSD) (6.2–81.8 years old) and 2,057 trauma-exposed controls without PTSD (6.3–85.2 years old). We found that, compared to the other data harmonization methods, data processed with ComBat-GAM was more sensitive to the detection of significant case-control differences (X(2)(3) = 63.704, p < 0.001) as well as case-control differences in age-related cortical thinning (X(2)(3) = 12.082, p = 0.007). Both ComBat and ComBat-GAM outperformed LME methods in detecting sex differences (X(2)(3) = 9.114, p = 0.028) in regional cortical thickness. ComBat-GAM also led to stronger estimates of age-related declines in cortical thickness (corrected p-values < 0.001 ), stronger estimates of case-related cortical thickness reduction (corrected p-values < 0.001 ), weaker estimates of age-related declines in cortical thickness in cases than controls (corrected p-values < 0.001 ), stronger estimates of cortical thickness reduction in females than males (corrected p-values < 0.001 ), and stronger estimates of cortical thickness reduction in females relative to males in cases than controls (corrected p-values < 0.001 ). Our results support the use of ComBat-GAM to minimize confounds and increase statistical power when harmonizing data with non-linear effects, and the use of either ComBat or ComBat-GAM for harmonizing data with linear effects. 2022-11-01 2022-07-30 /pmc/articles/PMC9648725/ /pubmed/35917919 http://dx.doi.org/10.1016/j.neuroimage.2022.119509 Text en https://creativecommons.org/licenses/by-nc-nd/4.0/This is an open access article under the CC BY-NC-ND license (http://creativecommons.org/licenses/by-nc-nd/4.0/ (https://creativecommons.org/licenses/by-nc-nd/4.0/) )
spellingShingle Article
Sun, Delin
Rakesh, Gopalkumar
Haswell, Courtney C.
Logue, Mark
Baird, C. Lexi
O’Leary, Erin N.
Cotton, Andrew S.
Xie, Hong
Tamburrino, Marijo
Chen, Tian
Dennis, Emily L.
Jahanshad, Neda
Salminen, Lauren E.
Thomopoulos, Sophia I.
Rashid, Faisal
Ching, Christopher R.K.
Koch, Saskia B.J.
Frijling, Jessie L.
Nawijn, Laura
van Zuiden, Mirjam
Zhu, Xi
Suarez-Jimenez, Benjamin
Sierk, Anika
Walter, Henrik
Manthey, Antje
Stevens, Jennifer S.
Fani, Negar
van Rooij, Sanne J.H.
Stein, Murray
Bomyea, Jessica
Koerte, Inga K.
Choi, Kyle
van der Werff, Steven J.A.
Vermeiren, Robert R.J.M.
Herzog, Julia
Lebois, Lauren A.M.
Baker, Justin T.
Olson, Elizabeth A.
Straube, Thomas
Korgaonkar, Mayuresh S.
Andrew, Elpiniki
Zhu, Ye
Li, Gen
Ipser, Jonathan
Hudson, Anna R.
Peverill, Matthew
Sambrook, Kelly
Gordon, Evan
Baugh, Lee
Forster, Gina
Simons, Raluca M.
Simons, Jeffrey S.
Magnotta, Vincent
Maron-Katz, Adi
du Plessis, Stefan
Disner, Seth G.
Davenport, Nicholas
Grupe, Daniel W.
Nitschke, Jack B.
deRoon-Cassini, Terri A.
Fitzgerald, Jacklynn M.
Krystal, John H.
Levy, Ifat
Olff, Miranda
Veltman, Dick J.
Wang, Li
Neria, Yuval
De Bellis, Michael D.
Jovanovic, Tanja
Daniels, Judith K.
Shenton, Martha
van de Wee, Nic J.A.
Schmahl, Christian
Kaufman, Milissa L.
Rosso, Isabelle M.
Sponheim, Scott R.
Hofmann, David Bernd
Bryant, Richard A.
Fercho, Kelene A.
Stein, Dan J.
Mueller, Sven C.
Hosseini, Bobak
Phan, K. Luan
McLaughlin, Katie A.
Davidson, Richard J.
Larson, Christine L.
May, Geoffrey
Nelson, Steven M.
Abdallah, Chadi G.
Gomaa, Hassaan
Etkin, Amit
Seedat, Soraya
Harpaz-Rotem, Ilan
Liberzon, Israel
van Erp, Theo G.M.
Quidé, Yann
Wang, Xin
Thompson, Paul M.
Morey, Rajendra A.
A comparison of methods to harmonize cortical thickness measurements across scanners and sites
title A comparison of methods to harmonize cortical thickness measurements across scanners and sites
title_full A comparison of methods to harmonize cortical thickness measurements across scanners and sites
title_fullStr A comparison of methods to harmonize cortical thickness measurements across scanners and sites
title_full_unstemmed A comparison of methods to harmonize cortical thickness measurements across scanners and sites
title_short A comparison of methods to harmonize cortical thickness measurements across scanners and sites
title_sort comparison of methods to harmonize cortical thickness measurements across scanners and sites
topic Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9648725/
https://www.ncbi.nlm.nih.gov/pubmed/35917919
http://dx.doi.org/10.1016/j.neuroimage.2022.119509
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AT wangxin acomparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT thompsonpaulm acomparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT moreyrajendraa acomparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT sundelin comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT rakeshgopalkumar comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT haswellcourtneyc comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT loguemark comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT bairdclexi comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT olearyerinn comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT cottonandrews comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT xiehong comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT tamburrinomarijo comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT chentian comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT dennisemilyl comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT jahanshadneda comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT salminenlaurene comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT thomopoulossophiai comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT rashidfaisal comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT chingchristopherrk comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT kochsaskiabj comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT frijlingjessiel comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT nawijnlaura comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT vanzuidenmirjam comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT zhuxi comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT suarezjimenezbenjamin comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT sierkanika comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT walterhenrik comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT mantheyantje comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT stevensjennifers comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT faninegar comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT vanrooijsannejh comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT steinmurray comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT bomyeajessica comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT koerteingak comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT choikyle comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT vanderwerffstevenja comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT vermeirenrobertrjm comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT herzogjulia comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT leboislaurenam comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT bakerjustint comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT olsonelizabetha comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT straubethomas comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT korgaonkarmayureshs comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT andrewelpiniki comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT zhuye comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT ligen comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT ipserjonathan comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT hudsonannar comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT peverillmatthew comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT sambrookkelly comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT gordonevan comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT baughlee comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT forstergina comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT simonsralucam comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT simonsjeffreys comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT magnottavincent comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT maronkatzadi comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT duplessisstefan comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT disnersethg comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT davenportnicholas comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT grupedanielw comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT nitschkejackb comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT derooncassiniterria comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT fitzgeraldjacklynnm comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT krystaljohnh comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT levyifat comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT olffmiranda comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT veltmandickj comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT wangli comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT neriayuval comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT debellismichaeld comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT jovanovictanja comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT danielsjudithk comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT shentonmartha comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT vandeweenicja comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT schmahlchristian comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT kaufmanmilissal comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT rossoisabellem comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT sponheimscottr comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT hofmanndavidbernd comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT bryantricharda comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT ferchokelenea comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT steindanj comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT muellersvenc comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT hosseinibobak comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT phankluan comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT mclaughlinkatiea comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT davidsonrichardj comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT larsonchristinel comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT maygeoffrey comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT nelsonstevenm comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT abdallahchadig comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT gomaahassaan comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT etkinamit comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT seedatsoraya comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT harpazrotemilan comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT liberzonisrael comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT vanerptheogm comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT quideyann comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT wangxin comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT thompsonpaulm comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites
AT moreyrajendraa comparisonofmethodstoharmonizecorticalthicknessmeasurementsacrossscannersandsites