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An Explainable AI Framework for Predictive Healthcare Analytics in Cloud-Native Smart Environments

Abstract

The vision for a cloud-native architecture capable of supporting data exchange and predictive analytics across deployed smart health systems relies on two accepted concepts: (i) interoperability, the ability of an information technology system or product to work with other information technology systems or products; and (ii) predictive analytics, technology that analyzes current and historical facts to make predictions about future events. The proposed architectural framework focuses on data governance, and in particular the aspects of provenance, privacy, and analysis methods. A privacy-preserving approach to data classification detects and replaces sensitive information elements such as social security numbers, addresses, or credit card numbers. The management of data exchange operations is aligned with the requirements of the health domain data model. Predictive analytics use Explainable Artificial Intelligence techniques to provide interpretable predictions for clinical users.

 

The healthcare domain is one of the sectors where the use of smart systems has been accelerated because of the requirements imposed by the COVID-19 pandemic. Many Cloud-Native Smart Systems are designed, implemented, and deployed on the Cloud to support different Health software applications. Such systems, although deployed in the Cloud, do not have the ability to interact with each other owing to a lack of interoperability. Large amounts of data are collected from different users and devices; the creation of predictive models is an important task to help detect patterns, trends, and predict future values in health, analyzing patients' data to decide the presence of a health problem. A Cloud-Native architecture able to perform predictive analytics in the health domain and that supports interoperability among data is needed.

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