RESEARCH INTERESTs

With ongoing advances in the construction industry involving the introduction of new building materials and technologies, our ability to predict the structural behaviour and safety of these innovations is critical. Associate Professor Daniel Dias-da-Costa's research into advanced computational simulation techniques aims to enhance the safety of our built environment by addressing a wide range of building materials, including concrete, masonry and glass.

"My research in structural engineering and material mechanics aims to introduce a new computational framework that will have a strong impact on practice engineering. This framework will effectively bridge high-end simulation and monitoring approaches, such that structural designers can explore the full potential of challenging construction designs.

"I develop computational techniques that can be used to simulate real-life structural failure. This allows us to efficiently predict the behaviour and response of structures in such situations; for instance, when concrete starts crushing or cracking, or when reinforcing steel yields and slips against the concrete.

"This is a very complex and computationally demanding task, and even high-end commercial software often fails to deliver reliable solutions. Therefore, I have been developing new programs to address this need. This approach has already shown good performance with a wide range of problems and materials.

"I really enjoy performing experimental tests of large-scale structures, where I have the chance of pushing the materials to the limit. In this way I can deeply understand the structural response. I then bring this knowledge to my numerical models and am able to run simulations of different situations that cannot be tested otherwise. This combined approach is crucial to achieve safer design solutions.

"I am passionate about my research because it can be applied to a wide range of different areas. This gives me the opportunity to deal with people from very different backgrounds, which in fact is what I find most enriching and rewarding about my work."

FUNDED RESEARCH

  • GRANT
    Extracting steady renewable energy via enhanced geothermal systems
    Australian Research Council (ARC)1 Jul 2026 - 30 Jun 2029
    People funded by this grant:
  • GRANT
    Unlocking self-healing bio-concrete through multiscale modelling
    Australian Research Council (ARC)25 Sep 2024 - 24 Sep 2027
    People funded by this grant:
  • GRANT
    Next-generation offshore floating energy platform enabled by fibre-reinforced self-repairing bio-cementitious composites
    Office of Global Engagement1 Jan 2024
    People funded by this grant:
    • Tong J,
    • Shen L,
    • Dias-da-Costa D
  • GRANT
    Energy dissipation characterisation in dynamic brittle fracture
    Australian Research Council (ARC)3 Apr 2023 - 31 Dec 2026
    People funded by this grant:
  • GRANT
    City Meta Twins
    Nano Institute1 Jan 2023
    People funded by this grant:
    • Dias-da-Costa D
  • GRANT
    Smart sensors for intelligent buildings
    Nano Institute1 Jan 2022
    People funded by this grant:
    • Dias-da-Costa D
  • GRANT
    The mechanics of healing and self-healing in clayey soils
    Australian Research Council (ARC)10 Mar 2017 - 9 Mar 2020
    People funded by this grant:
  • GRANT
    Development of iLab: Internet Lab in Civil Engineering
    School of Civil Engineering1 Jan 2016
    People funded by this grant:
    • Alonso-Marroquin F,
    • El-Zein A,
    • Dias-da-Costa D
  • GRANT
    Impact and blast mitigation in structures using novel nano-enhanced polyurea coatings
    School of Civil Engineering1 Jan 2016
    People funded by this grant:
  • GRANT
    Computational framework for fracture in concrete structures
    Australian Research Council (ARC)29 Jun 2015 - 28 Jun 2018
    People funded by this grant:
    • Dias-da-Costa D
  • GRANT
    Integrated multilayered floor systems for high-performance buildings
    Australian Research Council (ARC)19 Jun 2015 - 18 Jun 2018
    People funded by this grant:
  • GRANT
    Characterisation of internal damage due to cracking in concrete structures
    University of Sydney1 Jan 2015
    People funded by this grant:
    • Dias-da-Costa D
  • GRANT
    Experimental facility for micro-to-macro analysis of flow and transfer in fractured materials
    School of Civil Engineering1 Jan 2015
    People funded by this grant:
  • GRANT
    Stiffness degradation of concrete members induced by reinforcement corrosion
    Australian Research Council (ARC)25 Feb 2014 - 30 Nov 2017
    People funded by this grant:
    • Gilbert R,
    • Ranzi G,
    • Dias-da-Costa D,
    • Castel A
  • GRANT
    Sydney Opera House - Concrete Conservation Strategy Project
    Sydney Opera House Trust1 Jan 2014
    People funded by this grant: