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Current Selection
Scheme : Discovery Projects
Australian State/Territory : WA
Field of Research : Maritime Engineering
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  • Funded Activity

    Discovery Projects - Grant ID: DP0557060

    Funder
    Australian Research Council
    Funding Amount
    $274,000.00
    Summary
    Numerical Modelling of Three-dimensional Scour below Offshore Pipelines. Australia's increasing offshore oil and gas exploration has demanded more accurate and reliable methods for evaluating the safety and serviceability of pipelines. Local scour around pipelines is one of the major causes of pipeline failures, and is a major concern in Australian waters. This project not only addresses these concerns in its direct application to the design and management of offshore pipelines, but also will co .... Numerical Modelling of Three-dimensional Scour below Offshore Pipelines. Australia's increasing offshore oil and gas exploration has demanded more accurate and reliable methods for evaluating the safety and serviceability of pipelines. Local scour around pipelines is one of the major causes of pipeline failures, and is a major concern in Australian waters. This project not only addresses these concerns in its direct application to the design and management of offshore pipelines, but also will contribute to the nation's development and competitiveness in offshore exploration, and produce high quality research students. The improved design and management of pipelines in Australian waters will reduce the risk of potential environmental damages caused by leaking gas and oil.
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    Active Funded Activity

    Discovery Projects - Grant ID: DP200101545

    Funder
    Australian Research Council
    Funding Amount
    $564,507.00
    Summary
    Advancing predictions of ecosystem-based coastal flood defence. This project aims to develop a new framework to accurately predict how a diverse range of coastal ecosystems (seagrasses, corals, mangroves) act to reduce coastal flooding. The project aspires to develop novel theory and models to quantify how the large, complex roughness of these ecosystems interacts with coastal flows to attenuate extreme water levels at coastlines. Expected outcomes include new predictive models and guidelines th .... Advancing predictions of ecosystem-based coastal flood defence. This project aims to develop a new framework to accurately predict how a diverse range of coastal ecosystems (seagrasses, corals, mangroves) act to reduce coastal flooding. The project aspires to develop novel theory and models to quantify how the large, complex roughness of these ecosystems interacts with coastal flows to attenuate extreme water levels at coastlines. Expected outcomes include new predictive models and guidelines that can be immediately incorporated into coastal hazard forecasts and engineering practice. This will allow greatly-improved predictions of how coastal ecosystems support the safety and resilience of coastal communities worldwide, and new design guidelines to boost nature-based coastal defence projects.
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    Funded Activity

    Discovery Projects - Grant ID: DP0210119

    Funder
    Australian Research Council
    Funding Amount
    $168,000.00
    Summary
    Hydroelasticity of compliant offshore structures. Australia's rich offshore oil and gas reserves are awaiting extensive deepwater extraction. However, there is still a lack of in-depth knowledge in the dynamic behavior of deepwater structures to ensure safe and cost-effective production. We hereby propose hydroelasticity theories and modelling techniques to investigate dynamic fluid-structure interaction problems for compliant offshore structures. We also propose innovative experiments to verify .... Hydroelasticity of compliant offshore structures. Australia's rich offshore oil and gas reserves are awaiting extensive deepwater extraction. However, there is still a lack of in-depth knowledge in the dynamic behavior of deepwater structures to ensure safe and cost-effective production. We hereby propose hydroelasticity theories and modelling techniques to investigate dynamic fluid-structure interaction problems for compliant offshore structures. We also propose innovative experiments to verify the theoretical work. One application is to configure a freestanding compliant tower to suit prospective deepwater oil and gas fields off North-West Australia. Expected outcomes include theoretical and experimental advances in deepwater offshore mechanics and practical computation tools for industry applications.
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    Funded Activity

    Discovery Projects - Grant ID: DP0344196

    Funder
    Australian Research Council
    Funding Amount
    $274,000.00
    Summary
    MODAL AND DIRECTIONAL CHARACTERISTICS OF SEASTATES AND THEIR IMPACT ON DYNAMICS OF MOORED OFFSHORE SYSTEMS. Under certain conditions a typical sea can becomes bimodal comprising of wind-driven seas and long period swells interacting from two directions. Using a nonlinear model, the occurrence and characteristics of bimodal and bi-directional seastates are quantified. Low frequency oscillations of a moored offshore structure have profound design influence on the mooring system. A nonlinear res .... MODAL AND DIRECTIONAL CHARACTERISTICS OF SEASTATES AND THEIR IMPACT ON DYNAMICS OF MOORED OFFSHORE SYSTEMS. Under certain conditions a typical sea can becomes bimodal comprising of wind-driven seas and long period swells interacting from two directions. Using a nonlinear model, the occurrence and characteristics of bimodal and bi-directional seastates are quantified. Low frequency oscillations of a moored offshore structure have profound design influence on the mooring system. A nonlinear response model for a floating vessel in bimodal and bi-directional seastates, will be developed using nonlinear dynamics techniques. The numerical models for the environment and the floating platform will be validated by experiments at the Ocean Basin in Canada. The project adopts a holistic approach by considering the environment and the moored platform as a complex natural system. With excellent opportunities for technology transfer, the project also benefits from substantial in-kind contributions of the overseas PIs.
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    Funded Activity

    Discovery Projects - Grant ID: DP0345424

    Funder
    Australian Research Council
    Funding Amount
    $227,000.00
    Summary
    Development of Models for the Three-Dimensional Analysis of Jack-Up Structures. Mobile jack-up structures perform most of the world's offshore drilling in water depths up to 120m, but have a higher accident rate then fixed installations. To improve their safety, this research will develop the framework for the integrated assessment of jack-up behaviour in three dimensions. To achieve this, an advanced plasticity model that describes cyclic behaviour of the circular shallow foundations of jack-up .... Development of Models for the Three-Dimensional Analysis of Jack-Up Structures. Mobile jack-up structures perform most of the world's offshore drilling in water depths up to 120m, but have a higher accident rate then fixed installations. To improve their safety, this research will develop the framework for the integrated assessment of jack-up behaviour in three dimensions. To achieve this, an advanced plasticity model that describes cyclic behaviour of the circular shallow foundations of jack-ups in both clay and sand will be developed and incorporated with random wave loading of seas in a dynamic structural analysis program. The anticipated advantages of the modelling techniques will be assessed against existing two dimensional industry guidelines and monitored field data.
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