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Scheme : Discovery Projects
Research Topic : Structural analysis
Socio-Economic Objective : Civil
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  • Funded Activity

    Discovery Projects - Grant ID: DP0210837

    Funder
    Australian Research Council
    Funding Amount
    $183,000.00
    Summary
    Fuzzy finite element analysis of smart structures using concepts of optimization. The major aim of this research is to develop an innovative approach using fuzzy finite element method for the analysis and design of smart control systems for civil engineering structures subjected to vibrations due to earthquakes. The significance of this project is the proposal to combine, for the first time, techniques such as finite element, fuzzy logic and optimization in a unified manner. The final result wil .... Fuzzy finite element analysis of smart structures using concepts of optimization. The major aim of this research is to develop an innovative approach using fuzzy finite element method for the analysis and design of smart control systems for civil engineering structures subjected to vibrations due to earthquakes. The significance of this project is the proposal to combine, for the first time, techniques such as finite element, fuzzy logic and optimization in a unified manner. The final result will produce an efficient design tool for a structural system integrated with smart sensors/actuators for vibration control.
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    Funded Activity

    Discovery Projects - Grant ID: DP0557386

    Funder
    Australian Research Council
    Funding Amount
    $223,000.00
    Summary
    Unified approach for the stability analysis of large concrete dams due to ageing degradation. The expected outcome of this research is the availability of an innovative methodology for the safety assessment of aged concrete dams. Most of the concrete dams built in Australia and elsewhere have been in service for over 50 years. Degradation effects on aged concrete dams, and resistant ability of such aged concrete dams against hostile natural events, such as earthquakes, are of great concern for e .... Unified approach for the stability analysis of large concrete dams due to ageing degradation. The expected outcome of this research is the availability of an innovative methodology for the safety assessment of aged concrete dams. Most of the concrete dams built in Australia and elsewhere have been in service for over 50 years. Degradation effects on aged concrete dams, and resistant ability of such aged concrete dams against hostile natural events, such as earthquakes, are of great concern for engineers. The safety assessment of aged concrete dams can be done rationally by the proposed method which will provide a better knowledge of the ageing effects on concrete dams. The approach will provide a tool for rational decision-making as to the structural rehabilitation of large concrete dams affected by ageing degradation.
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    Funded Activity

    Discovery Projects - Grant ID: DP0451695

    Funder
    Australian Research Council
    Funding Amount
    $273,000.00
    Summary
    Interaction of Local and Distortional Buckling in Thin-Walled High Strength Steel Sections. Recent research at the University of Sydney has shown that the local and distortional buckling modes in thin-walled high strength steel sections may have adverse interaction. Cold-Formed steel sections of this type are used in residential construction, ceiling systems, partitioning systems in offices and other light gauge applications. The project will develop mathematical models of the interaction beha .... Interaction of Local and Distortional Buckling in Thin-Walled High Strength Steel Sections. Recent research at the University of Sydney has shown that the local and distortional buckling modes in thin-walled high strength steel sections may have adverse interaction. Cold-Formed steel sections of this type are used in residential construction, ceiling systems, partitioning systems in offices and other light gauge applications. The project will develop mathematical models of the interaction behaviour of sections of this type for a wide range of section geometries. A major outcome will be design methods which accurately quantify the interaction behaviour based on the models. Testing will be undertaken to support the theoretical developments and to calibrate the design models.
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    Funded Activity

    Discovery Projects - Grant ID: DP0210702

    Funder
    Australian Research Council
    Funding Amount
    $179,000.00
    Summary
    Fibre reinforced polymer retrofitting of reinforced concrete flexural members. A cost-effective and durable technique for retrofitting reinforced concrete beams and slabs is to adhesively bond new advanced fibre reinforced polymer (FRP) composites to their surfaces. The potential plating market in Australia for bridges is $350 million, however, the technique can also be applied to strengthening other structures such as buildings. Tests have shown that FRP plates or sheets can debond prematurely, .... Fibre reinforced polymer retrofitting of reinforced concrete flexural members. A cost-effective and durable technique for retrofitting reinforced concrete beams and slabs is to adhesively bond new advanced fibre reinforced polymer (FRP) composites to their surfaces. The potential plating market in Australia for bridges is $350 million, however, the technique can also be applied to strengthening other structures such as buildings. Tests have shown that FRP plates or sheets can debond prematurely, which at present severely limits the application. The aim of this research project is to quantify the debonding mechanisms, strengths and ductilities of adhesively bonded FRP plated beams to provide design rules that can be used in practice.
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    Funded Activity

    Discovery Projects - Grant ID: DP0986332

    Funder
    Australian Research Council
    Funding Amount
    $360,000.00
    Summary
    Limit and shakedown analyses allowing for geometric effects and physical instability. The accurate safety assessment of structures is a fundamental requirement for their safe and cost effective design and management. In this respect, understanding the implications of geometric effects and physical instability on the failure behaviour of structures is a vital and challenging one. This project aims at achieving this by developing innovative approaches in which the classical, so-called, limit and s .... Limit and shakedown analyses allowing for geometric effects and physical instability. The accurate safety assessment of structures is a fundamental requirement for their safe and cost effective design and management. In this respect, understanding the implications of geometric effects and physical instability on the failure behaviour of structures is a vital and challenging one. This project aims at achieving this by developing innovative approaches in which the classical, so-called, limit and shakedown, analyses are extended to incorporate these effects. The project will result in a significant advance in Australia's capability for enhanced diagnosis of its aging infrastructure and potentially also, through this newly developed computational ability, for the rapid transition of new materials to emerging technologies.
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    Funded Activity

    Discovery Projects - Grant ID: DP0879733

    Funder
    Australian Research Council
    Funding Amount
    $371,000.00
    Summary
    Utilising the benefits of high performance steels (HPS) and infill materials for critical infrastructure protection (CIP) against extreme loads. This project will provide an improved understanding of the behaviour of structural elements subjected to impact and blast loads. The structural engineering community will benefit from the state of the art knowledge whilst the general community will benefit from the increased safety of critical infrastructure which will provide greater security against .... Utilising the benefits of high performance steels (HPS) and infill materials for critical infrastructure protection (CIP) against extreme loads. This project will provide an improved understanding of the behaviour of structural elements subjected to impact and blast loads. The structural engineering community will benefit from the state of the art knowledge whilst the general community will benefit from the increased safety of critical infrastructure which will provide greater security against physical and financial losses. This project extends on work conducted by the first Chief and Partner Investigator in a completed ARC Discovery Project. It is also directly related to research being carried out by the Second Chief Investigator as part of the ARC, Research Network for a Secure Australia.
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    Funded Activity

    Discovery Projects - Grant ID: DP0988940

    Funder
    Australian Research Council
    Funding Amount
    $350,000.00
    Summary
    Efficient reinforced concrete design using linear elastic finite element analysis. It is expected that this project will bring about changes in the design practice for reinforced concrete structures, particularly those of complex geometry, which will enhance the competitiveness of the Australian design community. Through reduction of the overuse of concrete often present in current conservative design procedures for such structures, the project will lead to a reduction in the impact of reinforce .... Efficient reinforced concrete design using linear elastic finite element analysis. It is expected that this project will bring about changes in the design practice for reinforced concrete structures, particularly those of complex geometry, which will enhance the competitiveness of the Australian design community. Through reduction of the overuse of concrete often present in current conservative design procedures for such structures, the project will lead to a reduction in the impact of reinforced concrete construction on the environment and contribute to sustainable engineering practise.
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    Funded Activity

    Discovery Projects - Grant ID: DP0345990

    Funder
    Australian Research Council
    Funding Amount
    $199,500.00
    Summary
    Numerical Modelling of Strain Localization in Reinforced Concrete and Its Application to Prediction of Crack Spacing and Crack Width. Cracking of concrete has a major influence on structural performance. Prediction of crack spacing and crack widths is essential for serviceability considerations of reinforced concrete. The available formulas to evaluate crack widths are approximate and give a wide scatter of predicted values. The project aims to provide a new numerical methodology that will (fina .... Numerical Modelling of Strain Localization in Reinforced Concrete and Its Application to Prediction of Crack Spacing and Crack Width. Cracking of concrete has a major influence on structural performance. Prediction of crack spacing and crack widths is essential for serviceability considerations of reinforced concrete. The available formulas to evaluate crack widths are approximate and give a wide scatter of predicted values. The project aims to provide a new numerical methodology that will (finally) predict crack spacing correctly. The expected outcomes include a numerical analysis model and a set of algorithms to predict crack widths. This will markedly improve the understanding of the mechanism of crack spacing and provide a better prediction of crack spacing and crack widths.
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    Funded Activity

    Discovery Projects - Grant ID: DP0879734

    Funder
    Australian Research Council
    Funding Amount
    $300,413.00
    Summary
    Unified theory for the behaviour and design of composite steel-concrete beams subjected to generalised loading and support conditions. Steel framed construction for bridges, buildings and stadia is considered to provide a more elegant form of construction which often results in a minimum weight solution and can be linked with reconstructability and sustainability. This project, which provides for an improved understanding of steel framed construction, will result in the community being provided .... Unified theory for the behaviour and design of composite steel-concrete beams subjected to generalised loading and support conditions. Steel framed construction for bridges, buildings and stadia is considered to provide a more elegant form of construction which often results in a minimum weight solution and can be linked with reconstructability and sustainability. This project, which provides for an improved understanding of steel framed construction, will result in the community being provided with more efficient structural forms. From a technical perspective a greater understanding of steel framed construction will provide the structural engineering community with greater choice in their design process. This will often allow for the most effective solution in terms of aesthetics, constructability, cost and sustainability.
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    Funded Activity

    Discovery Projects - Grant ID: DP0449592

    Funder
    Australian Research Council
    Funding Amount
    $210,000.00
    Summary
    Advanced analysis of composite steel-concrete frames for multi-storey buildings under extreme loading. The benefits derived from advanced analysis include the ability to identify the exact collapse load of a structure, which is often far higher than that of an individual element. This is of immense importance when analysing a structure under extreme loading. Applications of advanced analysis in the past have ignored the higher order effects of flexural-torsional buckling, local buckling and par .... Advanced analysis of composite steel-concrete frames for multi-storey buildings under extreme loading. The benefits derived from advanced analysis include the ability to identify the exact collapse load of a structure, which is often far higher than that of an individual element. This is of immense importance when analysing a structure under extreme loading. Applications of advanced analysis in the past have ignored the higher order effects of flexural-torsional buckling, local buckling and partial interaction. This project aims to include these effects and will include both an experimental and theoretical investigation. The expected outcomes will include an improved understanding of the behaviour of composite frames and eventual implementation of advanced analysis in design.
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