DrShahadat Uddin
Senior Lecturer (Teaching and Research)
Faculty of Engineering
- Senior Lecturer (Teaching and Research)Faculty of Engineering
Research projects & supervision summary
Project Opportunities
Title: Fair Machine Learning in Predictive Modelling
Summary of opportunity:
This research project will use large-scale datasets to explore and understand the fairness of different machine-learning algorithms deployed in various contexts for predictive modelling.
Opportunity synopsis:
With the rapid advances in high-tech computing in recent years, AI-based systems have increasingly been used across numerous sensitive environments to make essential, life-changing decisions. Therefore, we must ensure these decisions are fair and bias-free. They do not show discriminatory behaviour or bias towards specific groups or populations. The current literature shows that different real-world AI-based systems tend to make unfair and biased decisions, mainly due to the data used, the algorithms, and the users. In addition to causing false alarms in the underlying context, such unfair outcomes will inherently create greater bias in training future algorithms. This research project will explore different facets of fair machine learning and its impact across various domains, and develop approaches to detect bias to help us avoid unfair AI-based decisions.
Successful candidates must:
- Have a Bachelor's degree (Honours or 1st class honours equivalent) or a Master's degree
- Have a strong back in machine learning and statistical modelling
- Have a strong background in data analytics and Python (or similar)
How to Apply: To apply, please email shahadat.uddin@sydney.edu.au the following:
- CV
- Transcript
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Project Opportunities
Title: Predictive disease modelling using Big data analytics and Complex network methods
Summary of opportunity:
This research project aims to mine the administrative claims dataset to develop predictive models for individual chronic diseases and for the comorbidity of multiple chronic diseases. For this purpose, it will use techniques and methods from Big Data analytics and Complex networks.
Opportunity synopsis:
Chronic diseases and their subsequent tendency to develop comorbid conditions are a significant health concern worldwide. Apart from causing premature mortality and reduced quality of life, these diseases exert a significant ongoing treatment cost, which impacts national economies. Prevention of chronic diseases has been a major challenge since patients, in many cases, remain unaware of the progression until they are admitted to a hospital. On the other hand, the administrative claim dataset is the largest single source of over-time utilisation data for different healthcare services. This dataset has already attracted significant attention for research, as it covers a wide range of medical services across a broad geographic area. Using big data analytics and complex network methods, this research project will mine administrative claim data to develop predictive models of the natural history of different chronic diseases and their tendency to develop comorbid conditions.
The project requires:
- A good background in Data Analytics
- Expert in a programming language (Python)
How to apply: To apply, please email shahadat.uddin@sydney.edu.au the following:
- CV
- Academic transcripts
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Project Opportunities
Title: Prompt Engineering to Improve Fairness in Large Language Models
Summary of opportunity:
This research project aims to explore and develop prompt engineering techniques to improve fairness (i.e., mitigate biases) in large language models.
Research Areas:
Fair AI; Large Language Model
Opportunity synopsis:
Although the world is witnessing an unprecedented application of Large Language Model (LLM)- based generative AI systems across various domains, these systems often produce biased or unfair outcomes. Adequate and appropriate prompt engineering is crucial for improving fairness or reducing biases in LLMs. Such a practical approach to LLMs involves understanding the nuances of language and context to create prompts that encourage more equitable responses across different demographic groups. By carefully designing and refining the input prompts used to guide these models, it is possible to mitigate biased outputs that often reflect societal prejudices. This project aims to develop prompt engineering techniques to improve fairness (i.e., reduce biases) in large language models.
The successful candidate must:
- Have experience in AI, Large Language Model and Generative AI
- Strong background in data analytics and Python (or similar)
How to apply: To apply, please email shahadat.uddin@sydney.edu.au the following:
- CV
- Academic transcripts
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Project Opportunities
Title: Data Bias and Model Fairness in Unsupervised Machine Learning
Summary of opportunity:
This project investigates the impact of data bias on the fairness and reliability of unsupervised machine learning algorithms. While fairness has been extensively studied in supervised contexts, unsupervised models, such as clustering and dimensionality reduction, remain vulnerable to latent biases in input data that can propagate through analyses and decision-making pipelines. The research aims to develop theoretical frameworks and practical methodologies for detecting, quantifying, and mitigating bias in unsupervised learning, focusing on promoting equitable outcomes across diverse applications, including healthcare, education, and social data analytics.
Keywords:
Fair AI, Data Bias, Unsupervised Machine Learning
The successful candidate must:
- Have a strong background in Data Analysis, Machine Learning and Python (or similar)
How to apply: To apply, please email shahadat.uddin@sydney.edu.au the following:
- CV
- Academic transcripts
RESEARCH PROJECTS & ACTIVITIES
- RESEARCH-BASED DEGREE SUPERVISIONInvestigating Fairness in Unsupervised Machine Learning: Algorithms and Evaluation Strategies2025
- RESEARCH-BASED DEGREE SUPERVISIONVisual-language and Multimodal Architectures for Computational Pathology2025
- RESEARCH-BASED DEGREE SUPERVISIONRisk Predictive Model for Adverse Drug Reaction Using Polypharmacy Network2022
- RESEARCH-BASED DEGREE SUPERVISIONChronic Disease Prediction Using Graph Machine Learning2021
- RESEARCH-BASED DEGREE SUPERVISIONStakeholder Network Complexities and Project Performance: An Analytical Perspective on Large Projects2018
- RESEARCH-BASED DEGREE SUPERVISIONPredictive Modelling of the Comorbidity of Chronic Diseases: A Network and Machine Learning Approach2017
- RESEARCH-BASED DEGREE SUPERVISIONMining Time-aware Actor-level Evolution Similarity for Link Prediction in Dynamic Network2015
- RESEARCH-BASED DEGREE SUPERVISIONPredicting the risk of chronic disease - a framework based on graph theory and social network analysis2013
- RESEARCH-BASED DEGREE SUPERVISIONAutomated Algorithm Selection for Fairness-Aware Clustering
- RESEARCH-BASED DEGREE SUPERVISIONChronic Disease Prediction Using Graph Machine Learning
- RESEARCH-BASED DEGREE SUPERVISIONFoundation Models for Neurological Disorders
- RESEARCH-BASED DEGREE SUPERVISIONInvestigating Fairness in Unsupervised Machine Learning: Algorithms and Evaluation Strategies
- RESEARCH-BASED DEGREE SUPERVISIONMining Time-aware Actor-level Evolution Similarity for Link Prediction in Dynamic Network
- RESEARCH-BASED DEGREE SUPERVISIONPredictive Modelling of the Comorbidity of Chronic Diseases: A Network and Machine Learning Approach
- RESEARCH-BASED DEGREE SUPERVISIONPredictive Models for Adverse Drug Reactions Using Polypharmacy Networks
- RESEARCH-BASED DEGREE SUPERVISIONStakeholder Network Complexities and Project Performance: An Analytical Perspective on Large Projects
- RESEARCH-BASED DEGREE SUPERVISIONTowards a Model of Large Network Cooperation
- RESEARCH-BASED DEGREE SUPERVISIONTowards a Model of Large Network Cooperation
- RESEARCH-BASED DEGREE SUPERVISIONTowards Reliable Fairness and Explainability in Machine Learning
- RESEARCH-BASED DEGREE SUPERVISIONTrustworthy Multimodal Clinical Prediction: Fair and Explainable Machine Learning for Health Informatics