Drug safety and pharmacovigilance organizations are increasingly moving away from simple descriptive analysis in favor of doing statistical analyses as well as building predictive models instead.
There is an increasing need for advanced data analytics capabilities as these companies develop their capabilities.
By analyzing historical data and using it to predict future outcomes or trends, predictive analytics can be applied in almost every area of medicine and health care.
There has been significant progress in the development of a framework for signal detection, as well as in identifying and describing individuals with vulnerabilities for experiencing adverse events following exposure to medicines, both in clinical development and after the marketing phase.
Having the ability to anticipate adverse events one step ahead of time is very important in the development process as well as after the marketing period.
Pharmacovigilance reports use predictive modeling to find previously unrecognized drug risks.
In real-world pharmacovigilance signal detection, VigiRank performs better than disparity analysis alone because it is data-driven and predictive.
The VigiRank is intended for use in pediatric populations in VigiBase, where forecasting techniques are useful in identifying safety signals.
A similar algorithm was in place to identify unanticipated increases in reports, specifically quality issues, medication errors, and abuse or misuse cases. The database’s algorithm produced encouraging results.
Investigational medicinal products’ exposure and adverse event risk have been analyzed using predictive models. When administering Rituximab to patients with hematologic malignancies, predictive models have been used to predict negative side effects.
Predictive analysis has been approached in a variety of ways, depending on the machine learning tool used. Using a neural network model, machine learning has been developed to predict the likelihood that a drug will have an adverse event at the time of prescription.
The relationship between exposure to a medicinal product under investigation and the risk of associated adverse events has also been examined using predictive models.
Depending on the machine learning tool that was used, various approaches to predictive analysis have been applied to these tools.
It was discovered that using machine learning with a neural network model was an effective way to forecast the likelihood of an unfavorable event occurring at a specific time.
To determine whether safety signals seen in first-in-human studies were most likely caused by chance or by the compound under study, other authors developed a model.
Depending on the characteristics of the subject and the study, the model estimates how likely an event is to occur.
To successfully identify signals resulting from adverse drug reactions in laboratory events, a variety of predictive modeling techniques were combined.
The research group combined features from each modeling technique into a machine-learning model. For signal detection, the integration of this model into an environment involving a digital medical record was successful.
Several methods have been tested to detect negative drug reaction signals using supervised machine learning algorithms. There has been research on the use of sequence symmetry analysis (SSA) to analyze dispensing data from pharmacies to identify signs of unfavorable drug interactions.
This case involved mathematical models used to assess the likelihood of adverse drug reactions in surgical settings using a set of mathematical models that were developed by the authors.
During hospital admission, the following was done. This identified the patients who are at higher risk of adverse drug experiences during hospital stays.
Predictive analysis and model development offer interesting uses in risk evaluation. The authors of a different study on drug safety in hospitals performed a systematic review of risk models for adverse drug events during hospitalization.
Using a multi-dose computational model to predict drug-induced hepatic damage based on gene regulation. Use statistical techniques to foresee negative drug reactions brought on by drug-drug interactions.