Miss Tia Haddad

Research project: A privacy-preserving microservices architecture to support epidemiologic research using large health datasets

Abstract

An epidemiology research project's success depends on the efficiency of its data processing workflow and its ability to create value. It is often necessary to harmonise data from multiple sources, discover patterns and efficiently compute useful projections. There is a significant gap between the potential of these datasets and their actual use, despite the advancements in the software engineering domain. Considering the developments in the Microservices architecture (MSA), the Cloud computing paradigm and Artificial Intelligence tools, more scalable, cost-effective, and distributed processing approaches can be explored for healthcare data processing. This research is aimed at developing an innovative healthcare data processing architecture by utilising microservices-based, hybrid-cloud-hosted collaborative data processing pipelines to improve scalability, efficiency, and privacy-preserving characteristics. As case studies prominent epidemiological data where warehouse systems' workflow will be studied and modelled. We then wish to explore the viability of multiple microservices data processing pipeline designs to replicate the existing workflows, introduce process improvements and process reengineering, with further developments focusing on expanding the proposed architecture into a hybrid-cloud environment, adding in-memory processing capabilities and AI features for autonomous load balancing. This study will yield architecture designs and potential data processing frameworks that will be beneficial to multiple entities involved in healthcare networks.

Biography

I graduated from Kingston University London with a First-class degree in BSc Computer Science (Hons). I have completed several healthcare informatics and software development internships, which sparked my passion for integrating software engineering solutions and healthcare. My research interests lie in optimising the adoption of digital health technologies within resource-constrained settings using novel sustainable and cost-efficient software solutions. It aims to address the unique demands of big healthcare data (BHD) processing by leveraging sustainable and reliable software solutions; allowing healthcare systems to autonomously adapt to the dynamic nature of healthcare operations while ensuring they are environmentally sustainable to support sustainable development.

Areas of research interest

  • Microservices Architecture
  • Big Healthcare Data (BHD)
  • Cloud Computing
  • Sustainable Data Processing
  • Machine Learning
  • Sustainable Software Engineering (SSE)
  • Healthcare Data Processing

Qualifications

  • BSc Computer Science (Hons), Kingston University London

Funding or awards received

  • MPhil/PhD Studentship in the Faculty of Engineering, Computing and the Environment
  • School Prize - Awarded for the best all-round performance within the school
  • KU's ECE PGR Conference- Oral Presentation Awarded for First Prize Judge's Choice Award

Publications

Haddad, T., Kumarapeli, P., de Lusignan, S., Barman, S. and Khaddaj, S., 2024. Advancing Healthcare Sustainability: Embracing MACH Architecture for Health IT System Transformation. Studies in health technology and informatics, 316, pp.1565-1566.

Kumarapeli, P., Haddad, T. and de Lusignan, S., 2024. Unlocking the Potential of Free Text in Electronic Health Records with Large Language Models (LLM): Enhancing Patient Safety and Consultation Interactions. Studies in health technology and informatics, 316, pp.746-750.