PhD Candidate · Flinders University
Hassan
Sabetifar
PhD Candidate in Sustainable Construction, focusing on eco-friendly alternative building materials. Based at Flinders University, Adelaide.
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About
Background
I am a PhD Candidate at Flinders University, working in the field of sustainable construction. My work focuses on identifying and evaluating alternative building materials with reduced environmental impact, with the aim of offering the construction industry practical, greener substitutes for conventional materials.
Before joining Flinders University, I completed my Master of Science in Structural Engineering at the University of Mazandaran, Iran. My research has been published in several peer-reviewed international journals, and I have collaborated with researchers across Australian and international institutions.
Beyond research, I am passionate about mentoring, teaching, and continuously learning new skills. Outside of academia, I have a passion for running and music. I am currently open to collaboration in the field of sustainable construction.
Currently Working On
Current Research
Research & Projects
Selected Work
Journal Article
Comprehensive Study of Eccentrically Loaded CFRP-Confined RC Columns: Prediction via ANN and GEP
Developed ANN and gene expression programming models to predict the maximum load capacity of eccentrically loaded CFRP-confined reinforced concrete columns, offering accurate data-driven alternatives to conventional empirical formulas.
Journal Article
Residual Axial Performance of PET/Rubber-Modified Concrete Confined with CFRP Strips after Thermal Exposure
Investigated the residual structural performance of concrete modified with recycled PET and tire rubber, confined with CFRP strips, following high-temperature exposure — combining experimental testing with theoretical modelling.
Journal Article
A Comprehensive and Reliable Investigation of Axial Capacity of Sy-CFST Columns Using Machine Learning-Based Models
Applied multiple machine learning models to predict the axial capacity of concrete-filled steel tube columns, demonstrating substantially improved accuracy over existing empirical approaches across a large experimental dataset.
Journal Article
Modeling of Heated Concrete-Filled Steel Tubes with Steel Fiber and Tire Rubber under Axial Compression
Developed predictive models for the compressive behaviour of heated concrete-filled steel tubes incorporating steel fiber and recycled tire rubber, combining experimental data with computational modelling to evaluate sustainable material alternatives.
Journal Article
An Evolutionary Approach for Formulation of Ultimate Shear Strength of Steel Fiber-Reinforced Concrete Beams Using Gene Expression Programming
Used gene expression programming to derive a reliable predictive formula for the ultimate shear strength of steel fiber-reinforced concrete beams, validated against an extensive experimental database from the literature.
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I welcome enquiries about research collaboration, joint projects, or questions about my work. Fill in the form below and I will get back to you.