ORIGINAL ARTICLES-G
Deep Inception‑ResNet: A Novel Approach for Personalized Prediction of Cumulative Pregnancy Outcomes in Vitro Fertilization Treatment (IVF)
Gaurav Majumdar2 · Abhishek Sengupta1 · Priyanka Narad1 · Harshita Pandey1
Harshita Pandey and Priyanka Narad these authors contributed
equally to this work.
Dr. Gaurav Majumdar is a Chief Embryologist; Dr. Abhishek
Sengupta is an Assistant Professor; Harshita Pandey is a Research
Associate; Dr. Priyanka Narad is an Assistant Professor.
Priyanka Narad
pnarad@amity.edu
1 Amity Institute of Biotechnology, Amity University Uttar
Pradesh, Noida, Uttar Pradesh, India
2 Center of IVF and Human Reproduction, Sir Ganga Ram
Hospital, New Delhi, India
Infertility can be described as the inability of a couple to
achieve pregnancy, even after trying to conceive for over
12 months. Numbers suggest that approximately 48 million
couples are currently facing fertility-related problems
globally [1]. To overcome infertility issues, advanced assisted reproductive technology (ART) procedures are
being used extensively. Additionally, the willingness
to achieve pregnancy later in life by preserving eggs or
embryos has also contributed to the growth of the adoption
of ART. One such most effective and common type
of ART is in vitro fertilization (IVF), which involves the
fertilization of retrieved eggs and viable sperm in a laboratory.
As per an article, around 2–2.5, lakh IVF cycles
are being performed in India every year [2].
With the objective of forecasting IVF outcomes using
ML and DL algorithms, many papers have been published
in the past. One of the recent live birth prediction models
was given by Goyal et al. [3]. An open-access dataset
which was provided by Human Fertilization and Embryology
Authority (the year 2010–2016) was analyzed. Brás
de Guimarães et al. [4] constructed an artificial neural
network (ANN) to estimate the likelihood of live birth.
In another study, Raef et al. [5] developed a model where
β-hCG (Human chorionic gonadotropin hormone) was
the target variable in clinical data (April 2016 to February
2018) to filter out insignificant attributes. Hassan
et al. [6] proposed a hill climbing-based feature selection
approach. Qiu et al. [7] developed a pre-treatment parameter-
based live birth rate predictor. However, consideration
of treatment parameters limits the use of the first four
above-mentioned models, making them unsuitable when
only pre-treatment parameters are known. Additionally,
for tabular datasets, the applied deep Inception-Residual
Network-based approach [8, 9] has remained unexplored
in these research studies. Also, the major limiting aspect
of all these models is that they cannot be used for Indian
sub-population due to socio-cultural discrepancies and
differences in the data distribution when compared to
countries in the West.
Our study presents a patient-centric artificially intelligent
system, that predicts IVF success rate by understanding
the complex relationship between multiple significant
pre-treatment parameters specific to the Indian context.
In this study, the historic data of 2268 Indian patients
with 79 features, who opted for IVF-ICSI (intracytoplasmic
sperm injection) procedure from January 2018 to
December 2020, were acquired from a well-known medical
center. Pre-treatment parameters such as maternal
age (patient age during the IVF procedure), number of
IVF cycle (course of IVF treatment, that starts from the
first day of the menstrual period till β-hCG test), type of
infertility (primary or secondary infertility), duration of
infertility (time span over which the efforts of a couple
trying to conceive were futile), AMH (ng/ml), indication
for IVF (inducing factor behind infertility), sperm type
(on the basis of mortality and sperm characteristics it
was divided into Normal or Male Factor), BMI, embryo
transfer (Only Fresh cycle, Fresh cycle + Subsequent Frozen Embryo Transfer (FET) and Freeze All Cycles)
were considered as the most significant features to predict
the positive β-hCG rate.
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N, Sarantaki A. Quality of life among couples with a fertility
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onus on healthcare providers to make it accessible and affordable.
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- Goyal A, Kuchana M and Ayyagari K Machine learning predicts
live-birth occurrence before in-vitro fertilization treatment. Sci
Rep (2020) 10(1).
- Brás de Guimarães B, Martins L, Metello J, Ferreira F, Ferreira
P, Fonseca J. Application of artificial intelligence algorithms to
estimate the success rate in medically assisted procreation. Reprod
Med. 2020;1(3):181–94.
- Raef B, Maleki M, Ferdousi R. Computational prediction
of implantation outcome after embryo transfer. Health Inf J.
2019;26(3):1810–26.
- Hassan M, Al-Insaif S, Hossain M, Kamruzzaman J. A machine
learning approach for prediction of pregnancy outcome following
IVF treatment. Neural Comput Appl. 2018;32(7):2283–97.
- Qiu J, Li P, Dong M, Xin X and Tan J Personalized prediction
of live birth prior to the first in vitro fertilization treatment: a
machine learning method. J Trans Med (2019) 17(1).
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