NEUROVISION EMBRYONET: A HYBRID DEEP LEARNING FRAMEWORK FOR HIGH-PRECISION EMBRYO MORPHOLOGY ANALYSIS

Embryo classification in India has evolved significantly within assisted reproductive technology (ART), particularly for in vitro fertilization (IVF). IVF centers in India have grown rapidly, with over 1,500 clinics by 2023, performing around 2.5 lakh cycles annually, as per the Indian Society of Assisted Reproduction. The objective of embryo classification using AI, specifically CNN with CBC, is to accurately categorize embryos as "normal" or "viable" for better IVF success. It means automating and objectifying the selection process, reducing human error, and enhancing implantation potential through advanced image analysis. Manual embryo classification involves embryologists visually assessing embryo morphology under a microscope, typically using the Gardner grading system. They evaluate features like blastocyst expansion, inner cell mass, and trophectoderm quality at specific stages. Embryos are scored and ranked for transfer or cryopreservation, relying on the embryologist’s expertise to identify the most viable ones for implantation. Manual embryo classification suffers from subjectivity, as embryologists’ assessments vary due to experience, fatigue, or inconsistent criteria application, leading to inter- and intra-observer variability. It’s timeconsuming, often missing subtle morphological details, and fails to predict implantation accurately, with success rates stagnating at 30-40%. Additionally, manual methods cannot process large datasets or integrate clinical variables effectively. The motivation for using AI, CNN, and CBC in embryo classification stems from overcoming manual system limitations like subjectivity and low accuracy. AI improves consistency, achieving near-perfect accuracy (e.g., 99.06% in CNN with CBC), enhances prediction of implantation potential, and reduces human error. It enables faster, data-driven decisions, addressing the scalability issues and variability in traditional methods. The proposed AI system, using a CNN with CBC model, revolutionizes embryo classification by automating and enhancing accuracy in IVF. The CNN extracts detailed features from microscopic embryo images, resizing them pixels and normalizing pixel values. These features are then classified by the CatBoost Classifier, achieving good accuracy. This hybrid model minimizes misclassification, ensures objective selection, and significantly boosts implantation success rates, outperforming manual methods.

Authors

Publication Details

Journal
International Journal of Engineering Research and Science & Technology
Published
2025-07-14
DOI
https://doi.org/10.62643/ijerst.v21.n3(1).pp616-624
Primary Topic
Genetic and phenotypic traits in livestock
Type
article
Field-Weighted Citation Impact
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article

NEUROVISION EMBRYONET: A HYBRID DEEP LEARNING FRAMEWORK FOR HIGH-PRECISION EMBRYO MORPHOLOGY ANALYSIS

Korrapati Sindhu, P. Vijay, Gali Bhavya Sri, Musali Shireesha
International Journal of Engineering Research and Science & Technology
Genetic and phenotypic traits in livestock
article

NEUROVISION EMBRYONET: A HYBRID DEEP LEARNING FRAMEWORK FOR HIGH-PRECISION EMBRYO MORPHOLOGY ANALYSIS

Korrapati Sindhu, P. Vijay, Gali Bhavya Sri, Musali Shireesha
article en

Abstract

Embryo classification in India has evolved significantly within assisted reproductive technology (ART), particularly for in vitro fertilization (IVF). IVF centers in India have grown rapidly, with over 1,500 clinics by 2023, performing around 2.5 lakh cycles annually, as per the Indian Society of Assisted Reproduction. The objective of embryo classification using AI, specifically CNN with CBC, is to accurately categorize embryos as "normal" or "viable" for better IVF success. It means automating and objectifying the selection process, reducing human error, and enhancing implantation potential through advanced image analysis. Manual embryo classification involves embryologists visually assessing embryo morphology under a microscope, typically using the Gardner grading system. They evaluate features like blastocyst expansion, inner cell mass, and trophectoderm quality at specific stages. Embryos are scored and ranked for transfer or cryopreservation, relying on the embryologist’s expertise to identify the most viable ones for implantation. Manual embryo classification suffers from subjectivity, as embryologists’ assessments vary due to experience, fatigue, or inconsistent criteria application, leading to inter- and intra-observer variability. It’s timeconsuming, often missing subtle morphological details, and fails to predict implantation accurately, with success rates stagnating at 30-40%. Additionally, manual methods cannot process large datasets or integrate clinical variables effectively. The motivation for using AI, CNN, and CBC in embryo classification stems from overcoming manual system limitations like subjectivity and low accuracy. AI improves consistency, achieving near-perfect accuracy (e.g., 99.06% in CNN with CBC), enhances prediction of implantation potential, and reduces human error. It enables faster, data-driven decisions, addressing the scalability issues and variability in traditional methods. The proposed AI system, using a CNN with CBC model, revolutionizes embryo classification by automating and enhancing accuracy in IVF. The CNN extracts detailed features from microscopic embryo images, resizing them pixels and normalizing pixel values. These features are then classified by the CatBoost Classifier, achieving good accuracy. This hybrid model minimizes misclassification, ensures objective selection, and significantly boosts implantation success rates, outperforming manual methods.

International Journal of Engineering Research and Science & TechnologyVol. 21(3 (1))
Openalex Percentile: Top 80%
Genetic and phenotypic traits in livestock
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