Machine learning system for safer childbirth outcomes

A computer system uses machine learning to predict the likelihood of a Cesarean delivery by analyzing up to 22 pregnancy-related characteristics. This technology aids in clinical decision-making, potentially reducing risks and costs associated with unplanned Cesarean sections.

Background

Unplanned Cesarean sections (C-sections) present significant health risks, including increased maternal morbidity and mortality rates, as well as higher neonatal intensive care admissions. Despite the preference for vaginal births due to lower associated risks, about 25% of C-sections occur unexpectedly after an attempted vaginal delivery, leading to poorer outcomes compared to planned C-sections.

Existing predictive models, like the VBAC calculator, are limited to women with prior C-sections and suffer from inaccuracies, reducing their clinical utility. This has highlighted the need for more accurate and broadly applicable predictive tools to guide delivery planning. The challenge lies in developing a model that can accurately predict the likelihood of an unplanned C-section for all pregnant women, regardless of their delivery history, using comprehensive data and advanced machine learning techniques to improve decision-making and health outcomes.

Technology description

The technology utilizes a sophisticated computer system to predict the likelihood of a Cesarean delivery for pregnant individuals. It operates by collecting various characteristic values related to the pregnancy, such as maternal age, body mass index, and previous birth history, which are then fed into a machine learning model. This model, capable of processing up to 22 different input features, calculates the probability of requiring a Cesarean delivery during an attempted vaginal birth.

The output, a probability value, assists healthcare providers in making informed clinical decisions, potentially reducing the risks and costs associated with unplanned Cesarean sections. Additionally, the system can determine the importance of each feature, providing insights into which factors most significantly influence the prediction, thereby facilitating better decision-making for both clinicians and patients.

This technology stands out due to its extensive use of national vital statistics data and advanced machine learning techniques, which allow for highly individualized predictions. Unlike traditional models that are limited to women with prior Cesarean deliveries, this model applies to a broader population, including those without previous Cesareans. The model's calibration is robust, as evidenced by its performance across multiple validation years, achieving high accuracy and recall scores.

By integrating feature importance analysis, the system not only predicts outcomes but also explains the underlying reasons for each prediction, enhancing transparency and trust in the decision-making process. This comprehensive approach to predicting delivery outcomes represents a significant advancement in maternal healthcare, offering a safer, data-driven method to manage childbirth risks.

Benefits

  • Reduces risks and costs associated with unplanned C-sections
  • Provides individualized predictions using national vital statistics data
  • Improves decision-making for healthcare providers and patients
  • Utilizes machine learning to predict the likelihood of Cesarean delivery
  • Offers feature importance analysis to understand influential factors
  • Supports informed clinical decisions regarding mode of delivery
  • Demonstrates excellent model calibration and accuracy
  • Facilitates shared decision-making efforts during pregnancy
  • Potentially reduces maternal and neonatal morbidity and mortality rates
  • Integrates risk of mortalities and morbidities for mother and child

Commercial applications

  • Clinical decision support systems
  • Healthcare cost reduction
  • Patient risk assessment tools
  • Predictive analytics in obstetrics

Patent link

https://patents.google.com/patent/US20240013925A1/en?oq=+18%2f251%2c595