Life Science — Clinical Data Feature Engineering for Predictive Models

Free

This DAG focuses on feature engineering from clinical data to enhance predictive modeling. It streamlines data transformation, feature selection, and model validation processes, ultimately improving decision-making in life sciences.

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Overview

The primary purpose of this DAG is to facilitate feature engineering from clinical data, which is essential for building accurate predictive models in the life sciences sector. The workflow begins by ingesting clinical trial data, patient records, and laboratory test results. These diverse data sources are processed through a series of transformation steps, including data cleaning, normalization, and feature extraction. Feature selection algorithms are then applied to identify the most relevant

The primary purpose of this DAG is to facilitate feature engineering from clinical data, which is essential for building accurate predictive models in the life sciences sector. The workflow begins by ingesting clinical trial data, patient records, and laboratory test results. These diverse data sources are processed through a series of transformation steps, including data cleaning, normalization, and feature extraction. Feature selection algorithms are then applied to identify the most relevant features for predictive modeling. Once the features are selected, model validation processes ensure that the predictions are reliable and actionable. The final outputs are stored in a feature store, allowing data science teams easy access to the engineered features for further analysis and model training. Monitoring key performance indicators (KPIs) such as feature importance and model accuracy is crucial to evaluate the impact of the features on predictive performance. By implementing this DAG, organizations can significantly enhance their predictive capabilities, leading to better patient outcomes and optimized clinical trial processes.

Part of the Fraud & Anomaly Analytics solution for the Life Science industry.

Use cases

  • Improves predictive accuracy for clinical decision-making.
  • Enhances efficiency in clinical trial processes.
  • Supports data-driven insights for patient care.
  • Reduces time to market for new therapies.
  • Increases collaboration among data science teams.

Technical Specifications

Inputs

  • Clinical trial data
  • Patient records
  • Laboratory test results

Outputs

  • Engineered feature set
  • Validation reports
  • Model performance metrics

Processing Steps

  1. 1. Ingest clinical trial data
  2. 2. Clean and normalize data
  3. 3. Extract relevant features
  4. 4. Select optimal features using algorithms
  5. 5. Validate predictive models
  6. 6. Store features in feature store

Additional Information

DAG ID

WK-1364

Last Updated

2025-12-13

Downloads

60

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