Transforming Current Design Practice for Controlled Modulus Columns . Current design methods used for Controlled Modulus Column-supported embankments are outdated and uneconomical. This project aims to use innovative numerical and image processing techniques to develop new design methods that use 100% recyclable, environmentally friendly and highly durable EPS geofoam. Outcomes will advance the fundamental knowledge of bearing capacity increase of columns due to formation of smear zone and damag ....Transforming Current Design Practice for Controlled Modulus Columns . Current design methods used for Controlled Modulus Column-supported embankments are outdated and uneconomical. This project aims to use innovative numerical and image processing techniques to develop new design methods that use 100% recyclable, environmentally friendly and highly durable EPS geofoam. Outcomes will advance the fundamental knowledge of bearing capacity increase of columns due to formation of smear zone and damages to nearby columns during installation. Numerical tools and design guidelines will be developed for engineers. The benefits include the design and construction of lighter, cheaper, safer and more stable embankments with significant cost and environmental gains from future infrastructure developments in Australia.Read moreRead less
Multilayer Graphene Based Anti-Corrosion Polymer Coated Structures. This project aims to develop a novel multilayer graphene/polymer coating for structures exposed to corrosive environment with graphene concentration varying layer-wise to eliminate galvanic corrosion yet maintain all unique advantages owing to graphene inclusion, thus offering a cost-effective design solution with significantly improved anti-corrosion performance and remarkably enhanced safety and durability for structures. Expe ....Multilayer Graphene Based Anti-Corrosion Polymer Coated Structures. This project aims to develop a novel multilayer graphene/polymer coating for structures exposed to corrosive environment with graphene concentration varying layer-wise to eliminate galvanic corrosion yet maintain all unique advantages owing to graphene inclusion, thus offering a cost-effective design solution with significantly improved anti-corrosion performance and remarkably enhanced safety and durability for structures. Expected outcomes of this project include an innovative design, experimental data on corrosion prevention, development of reliable simulation techniques and design procedures for the proposed coating. This should provide huge benefits to Australian civil, offshore and marine engineering industry and national economy.Read moreRead less
Discovery Early Career Researcher Award - Grant ID: DE230100180
Funder
Australian Research Council
Funding Amount
$436,554.00
Summary
Multifunctional Biomass Coatings for Electrostatic Induced Fire Hazards. This project aims to solve the problem of fire hazards caused by static electricity in hazardous industrial areas by synthesizing feasible, environmentally friendly, and efficient multifunctional biomass-based coatings. This research expects to study the fire-safe biomass coating using interdisciplinary approaches and establish a comprehensive understanding to provide new strategies and solutions to tackle fire safety issue ....Multifunctional Biomass Coatings for Electrostatic Induced Fire Hazards. This project aims to solve the problem of fire hazards caused by static electricity in hazardous industrial areas by synthesizing feasible, environmentally friendly, and efficient multifunctional biomass-based coatings. This research expects to study the fire-safe biomass coating using interdisciplinary approaches and establish a comprehensive understanding to provide new strategies and solutions to tackle fire safety issues occurring in hazardous industries and other relevant applications. This research and development of high value-added high-tech multifunctional biomass coating is targeted to boost the Australian local coating industry and bring about important economic and societal benefits. Read moreRead less