Decoupling Implantation Prediction and Embryo Ranking in Machine Learning: The Impact of Clinical Data and Discarded Embryos

Automated live embryo imaging has transformed in vitro fertilization (IVF) into a data‐intensive field. Unlike clinicians who rank embryos from the same IVF cycle cohort based on the embryos visual quality and determine how many embryos to transfer based on clinical factors, machine learning solutions usually combine these steps by optimizing for implantation prediction and using the same model for ranking the embryos within a cohort. Herein, it is established that this strategy can lead to suboptimal selection of embryos. It is revealed that despite enhancing implantation prediction, inclusion of clinical properties hampers ranking. Moreover, it is found that ambiguous labels of failed implantations, due to either low‐quality embryos or poor clinical factors, confound both the optimal ranking and even implantation prediction. To overcome these limitations, conceptual and practical steps are proposed to enhance machine learning‐driven IVF solutions. These consist of separating the optimizing of implantation from ranking by focusing on visual properties for ranking and reducing label ambiguity.

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Publication Details

Journal
Advanced Intelligent Systems
Published
2024-09-02
DOI
https://doi.org/10.1002/aisy.202400048
Primary Topic
Reproductive Biology and Fertility
Type
article
Field-Weighted Citation Impact
0.00

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article

Decoupling Implantation Prediction and Embryo Ranking in Machine Learning: The Impact of Clinical Data and Discarded Embryos

Sotirios H. Saravelos, Assaf Zaritsky, J. Grifo, Itay Erlich et al.
Advanced Intelligent Systems
Reproductive Biology and Fertility
article

Decoupling Implantation Prediction and Embryo Ranking in Machine Learning: The Impact of Clinical Data and Discarded Embryos

Sotirios H. Saravelos, Assaf Zaritsky, J. Grifo, Itay Erlich, Cristina Hickman, Assaf Ben‐Meir, Semra Kahraman, Iris Har‐Vardi
article en

Abstract

Automated live embryo imaging has transformed in vitro fertilization (IVF) into a data‐intensive field. Unlike clinicians who rank embryos from the same IVF cycle cohort based on the embryos visual quality and determine how many embryos to transfer based on clinical factors, machine learning solutions usually combine these steps by optimizing for implantation prediction and using the same model for ranking the embryos within a cohort. Herein, it is established that this strategy can lead to suboptimal selection of embryos. It is revealed that despite enhancing implantation prediction, inclusion of clinical properties hampers ranking. Moreover, it is found that ambiguous labels of failed implantations, due to either low‐quality embryos or poor clinical factors, confound both the optimal ranking and even implantation prediction. To overcome these limitations, conceptual and practical steps are proposed to enhance machine learning‐driven IVF solutions. These consist of separating the optimizing of implantation from ranking by focusing on visual properties for ranking and reducing label ambiguity.

Advanced Intelligent SystemsVol. 6(12)
Ben-Gurion University of the Negev (IL), Hebrew University of Jerusalem (IL), Hadassah Medical Center (IL), Hammersmith Hospital (GB), NYU Langone Health (US), Istanbul Memorial Hospital (TR)
Rosetrees Trust, German-Israeli Foundation for Scientific Research and Development, Israel Science Foundation, Ben-Gurion University of the Negev, Council for Higher Education, Ministry of Science and Technology, Israel, Division of Chemistry
Openalex Percentile: Top 78%
Reproductive Biology and Fertility
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