Dr Mahdi Abolghasemi

Lecturer

Mathematics
Faculty of Science

Overview

Dr. Abolghasemi has a multi-disciplinary background in Engineering, Business, Statistics, and Machine Learning. He is passionate about higher education and has studied and worked on three continents. His research interests and expertise lie in time series forecasting, predictive analytics, decision making and machine learning, with applications in supply chain management and renewable energies optimisation. Dr. Abolghasemi has consulted dozens of companies and developed forecasting and optimisation models for companies such as Sanitarium, Coca Cola, CSR, AEMO, Waterloo Wind Farm, Urban Utility, and Australian Renewable Energy Agency(ARENA). Mahdi's research is closely tied to evidence-based analytics for real-world problems.

Mahdi has published over 40 articles in top-tier academic journals and presented at numerous national and international conferences. He serves on the editorial board of the International Journal of Forecasting and is a regular reviewer for the International Journal of Production Economics, the International Journal of Production Research, and several international conferences. Mahdi is a member of national and international professional societies such as the International Institute of Forecasters, the Australian Mathematical Society, and INFORMS. He is also the founding chair and host of an international scientific podcast, "Forecasting Impact," which reaches audiences in over 120 countries around the world.

Research Interests

  • Data Science
    How to extract useful information and hidden patterns in data and use them for prediction using advanced statistical and machine learning algorithms, developing predictive analytics algorithms
  • Time series forecasting
    Exploring time series and stream data for forecasting short-term and long terms behaviour of systems, identifying trends seasonality, spikes and troughs.
  • Applied Machine Learning
    How to use AI and machine learning for automating the process, and how to build machine learning production systems.
  • Optimisatoin and Decision Making
    How we can develop models to make optimal decisions based on mathematical models and machine learning, and how humans can use the information and make reliable decisions by judgment, building decision-support systems.
  • Statistical modeling

Research Impacts

Dr Mahdi Abolghasemi is passionate about applied research, i.e, research with applications in solving real-world problems. Dr Abolghasemi has worked on several industry research projects during his working experience in the industry and academic journey. His research has been used in several sectors including the food and beverage supply chain, renewable energy, automotive, mining and construction industries. Mahdi has developed and optimised several forecasting decision support systems that are currently in use by industries.

Publications

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Grants

View all Grants

Supervision

  • Doctor Philosophy

  • Master Philosophy

  • Doctor Philosophy

View all Supervision

Available Projects

  • We aim to improve our understanding of Renewable Energy Sources (RES, wind and solar) over two timescales: 1) forecasting generation from hours to months, and 2) studying past and future climates to quantify projected changes in RES generation. Use physical models of the atmosphere (Numerical Weather Prediction and Climate Modelling) alongside historical observed data and new-generation data to drive the development of new forecasting methods and energy climate datasets. The forecasting component will develop seamless probabilistic RES forecasts with time horizons from hours to months using a blend of statistical and machine learning methods. Climate projections will develop high spatial and temporal (hourly) resolution RES data for onshore wind, offshore wind and PV from 2020-2050, using historical system data and ensembles of recent atmospheric model data, coupled with machine learning algorithms. This data will be used to investigate generation for different climate scenarios across RES alternatives. Statistical methods can rely on frequentist or Bayesian methods to help generate outcomes over short- and long-time scales, while machine learning techniques can range from simple decision trees to complex deep learning approaches.

    This is an industry-supported project. It is suitable for Honors, and PhD students.

  • Probabilistic forecasting associates a probability of occurrence with the predicted values, making it a useful technique for determining decisions based on the level of risk one can take. It is a powerful technique that unlike point forecast gives you a complete view of the future unknown values. In this project, we aim to use Bayesian approaches for probabilistic forecasting to predict the demand for products/services and accordingly determine a better decision whatever that may be, e.g., inventory of product, or optimal allocation of resources. We investigate the association between these two using real-world data.

    This is suitable for Honors and Masters students.

  • Time series often come in the form of many related time series known as hierarchical or group time series. Hierarchical time series refers to a collection of time series that have a natural and structural connection, e.g, time series are gathered across different locations such as sales across different stores and states in a country. This project aims to use optimisation methods like integer programming in the setting of hierarchical time series to forecast the entire hierarchy optimally.

    This is suitable for Honors or Masters students.

View all Available Projects

Publications

Book Chapter

Journal Article

Conference Publication

Grants (Administered at UQ)

PhD and MPhil Supervision

Current Supervision

Possible Research Projects

Note for students: The possible research projects listed on this page may not be comprehensive or up to date. Always feel free to contact the staff for more information, and also with your own research ideas.

  • We aim to improve our understanding of Renewable Energy Sources (RES, wind and solar) over two timescales: 1) forecasting generation from hours to months, and 2) studying past and future climates to quantify projected changes in RES generation. Use physical models of the atmosphere (Numerical Weather Prediction and Climate Modelling) alongside historical observed data and new-generation data to drive the development of new forecasting methods and energy climate datasets. The forecasting component will develop seamless probabilistic RES forecasts with time horizons from hours to months using a blend of statistical and machine learning methods. Climate projections will develop high spatial and temporal (hourly) resolution RES data for onshore wind, offshore wind and PV from 2020-2050, using historical system data and ensembles of recent atmospheric model data, coupled with machine learning algorithms. This data will be used to investigate generation for different climate scenarios across RES alternatives. Statistical methods can rely on frequentist or Bayesian methods to help generate outcomes over short- and long-time scales, while machine learning techniques can range from simple decision trees to complex deep learning approaches.

    This is an industry-supported project. It is suitable for Honors, and PhD students.

  • Probabilistic forecasting associates a probability of occurrence with the predicted values, making it a useful technique for determining decisions based on the level of risk one can take. It is a powerful technique that unlike point forecast gives you a complete view of the future unknown values. In this project, we aim to use Bayesian approaches for probabilistic forecasting to predict the demand for products/services and accordingly determine a better decision whatever that may be, e.g., inventory of product, or optimal allocation of resources. We investigate the association between these two using real-world data.

    This is suitable for Honors and Masters students.

  • Time series often come in the form of many related time series known as hierarchical or group time series. Hierarchical time series refers to a collection of time series that have a natural and structural connection, e.g, time series are gathered across different locations such as sales across different stores and states in a country. This project aims to use optimisation methods like integer programming in the setting of hierarchical time series to forecast the entire hierarchy optimally.

    This is suitable for Honors or Masters students.

  • Outlier detection is an important problem in many fields including in time series forecasting. Applications include detecting large spikes in transactions, or security breaches. This research project explores the application of machine learning techniques in the fields of cybersecurity forecasting and anomaly detection. With the ever-growing sophistication of cyber threats, traditional security measures are often insufficient to protect systems and networks effectively. By leveraging machine learning algorithms, this study aims to develop accurate and efficient models for predicting cyber attacks and identifying anomalous behaviour. The project involves analyzing large datasets of historical cybersecurity incidents, extracting relevant features, and training models to recognize patterns indicative of malicious activities. The findings of this research have the potential to enhance proactive cybersecurity measures and bolster defence mechanisms against evolving cyber threats.

    This is suitable for Honors and Masters students.

  • This project aims to develop a forecasting model for wind farms. We will use Machine Learning algorithms to predict power. The successful applicant will work on developing an R package for wind power forecasting.

    This is suitable for Honors and Master students.

  • This project aims to develop advanced forecasting models using machine learning, and advanced decision-making models using mixed integer programming for various problems in the agriculture supply chain, retail, and energy sectors.

    This is suitable for PhD and Masters students.