Depression patient-derived cortical neurons reveal potential biomarkers for antidepressant response

Introduction Major depressive disorder is highly prevalent worldwide and has been affecting an increasing number of people each year. Current first line antidepressants show merely 37% remission, and physicians are forced to use a trial-and-error approach when choosing a single antidepressant out...

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Main Authors: Y. Avior, S. Ron, D. Kroitorou, E. Nitzan, B. Corneo, D. Laifenfeld, T. Cohen Solal
Format: Article
Language:English
Published: Cambridge University Press 2021-04-01
Series:European Psychiatry
Subjects:
Online Access:https://www.cambridge.org/core/product/identifier/S0924933821003928/type/journal_article
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author Y. Avior
S. Ron
D. Kroitorou
E. Nitzan
B. Corneo
D. Laifenfeld
T. Cohen Solal
author_facet Y. Avior
S. Ron
D. Kroitorou
E. Nitzan
B. Corneo
D. Laifenfeld
T. Cohen Solal
author_sort Y. Avior
collection DOAJ
description Introduction Major depressive disorder is highly prevalent worldwide and has been affecting an increasing number of people each year. Current first line antidepressants show merely 37% remission, and physicians are forced to use a trial-and-error approach when choosing a single antidepressant out of dozens of available medications. Objectives We sought to identify a method of testing that would provide patient-specific information on whether a patient will respond to a medication using in vitro modeling. Methods Patient-derived lymphoblastoid cell lines from the STAR*D study were used to rapidly generate cortical neurons and screen them for bupropion effects, for which the donor patients showed remission or non-remission. Results We provide evidence for biomarkers specific for bupropion response, including synaptic connectivity and morphology changes as well as specific gene expression alterations. Conclusions These biomarkers support the concept of personalized antidepressant treatment based on in vitro platforms and could be utilized as predictors to patient response in the clinic. Disclosure This work was funded by Genetika+ Ltd, Jerusalem, Israel. YA, DK, EN, DL and TCS are employees of Genetika+ Ltd and received salary and/or stock options for the submitted work.
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spelling doaj.art-f5ca1af7e9834479887ee8aca9d576822023-11-17T05:07:47ZengCambridge University PressEuropean Psychiatry0924-93381778-35852021-04-0164S143S14310.1192/j.eurpsy.2021.392Depression patient-derived cortical neurons reveal potential biomarkers for antidepressant responseY. Avior0S. Ron1D. Kroitorou2E. Nitzan3B. Corneo4D. Laifenfeld5T. Cohen Solal6R&d, Genetika+, Jerusalem, IsraelR&d, Genetika+, Jerusalem, IsraelR&d, Genetika+, Jerusalem, IsraelR&d, Genetika+, Jerusalem, IsraelStem Cell Core Facility, Columbia University, New York City, United States of AmericaR&d, Genetika+, Jerusalem, IsraelR&d, Genetika+, Jerusalem, Israel Introduction Major depressive disorder is highly prevalent worldwide and has been affecting an increasing number of people each year. Current first line antidepressants show merely 37% remission, and physicians are forced to use a trial-and-error approach when choosing a single antidepressant out of dozens of available medications. Objectives We sought to identify a method of testing that would provide patient-specific information on whether a patient will respond to a medication using in vitro modeling. Methods Patient-derived lymphoblastoid cell lines from the STAR*D study were used to rapidly generate cortical neurons and screen them for bupropion effects, for which the donor patients showed remission or non-remission. Results We provide evidence for biomarkers specific for bupropion response, including synaptic connectivity and morphology changes as well as specific gene expression alterations. Conclusions These biomarkers support the concept of personalized antidepressant treatment based on in vitro platforms and could be utilized as predictors to patient response in the clinic. Disclosure This work was funded by Genetika+ Ltd, Jerusalem, Israel. YA, DK, EN, DL and TCS are employees of Genetika+ Ltd and received salary and/or stock options for the submitted work. https://www.cambridge.org/core/product/identifier/S0924933821003928/type/journal_articleDepressionpersonalized medicinebiomarkersdisease models
spellingShingle Y. Avior
S. Ron
D. Kroitorou
E. Nitzan
B. Corneo
D. Laifenfeld
T. Cohen Solal
Depression patient-derived cortical neurons reveal potential biomarkers for antidepressant response
European Psychiatry
Depression
personalized medicine
biomarkers
disease models
title Depression patient-derived cortical neurons reveal potential biomarkers for antidepressant response
title_full Depression patient-derived cortical neurons reveal potential biomarkers for antidepressant response
title_fullStr Depression patient-derived cortical neurons reveal potential biomarkers for antidepressant response
title_full_unstemmed Depression patient-derived cortical neurons reveal potential biomarkers for antidepressant response
title_short Depression patient-derived cortical neurons reveal potential biomarkers for antidepressant response
title_sort depression patient derived cortical neurons reveal potential biomarkers for antidepressant response
topic Depression
personalized medicine
biomarkers
disease models
url https://www.cambridge.org/core/product/identifier/S0924933821003928/type/journal_article
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AT sron depressionpatientderivedcorticalneuronsrevealpotentialbiomarkersforantidepressantresponse
AT dkroitorou depressionpatientderivedcorticalneuronsrevealpotentialbiomarkersforantidepressantresponse
AT enitzan depressionpatientderivedcorticalneuronsrevealpotentialbiomarkersforantidepressantresponse
AT bcorneo depressionpatientderivedcorticalneuronsrevealpotentialbiomarkersforantidepressantresponse
AT dlaifenfeld depressionpatientderivedcorticalneuronsrevealpotentialbiomarkersforantidepressantresponse
AT tcohensolal depressionpatientderivedcorticalneuronsrevealpotentialbiomarkersforantidepressantresponse