ARDC Research Link Australia Research Link Australia   BETA Research
Link
Australia
  • ARDC Newsletter Subscribe
  • Contact Us
  • Home
  • About
  • Feedback
  • Explore Collaborations
  • Researcher
  • Funded Activity
  • Organisation
  • Researcher
  • Funded Activity
  • Organisation
  • Researcher
  • Funded Activity
  • Organisation

Need help searching? View our Search Guide.

Advanced Search

Current Selection
Field of Research : Manufacturing Engineering
Field of Research : Tribology
Clear All
Filter by Field of Research
Manufacturing Engineering (6)
Tribology (6)
Manufacturing Processes and Technologies (excl. Textiles) (3)
Machine Tools (2)
Machining (2)
Manufacturing Engineering not elsewhere classified (1)
Numerical Modelling and Mechanical Characterisation (1)
Precision Engineering (1)
Filter by Socio-Economic Objective
Basic Precious Metal Products (3)
Coated Metal and Metal-Coated Products (2)
Expanding Knowledge in Engineering (2)
Fabricated Metal Products not elsewhere classified (2)
Basic Iron and Steel Products (1)
Environmentally Sustainable Plant Production not elsewhere classified (1)
Medical Instruments (1)
Oil and Gas Exploration (1)
Structural Metal Products (1)
Filter by Funding Provider
Australian Research Council (6)
Filter by Status
Active (4)
Closed (2)
Filter by Scheme
Discovery Projects (3)
ARC Future Fellowships (1)
Discovery Early Career Researcher Award (1)
Linkage Projects (1)
Filter by Country
Australia (6)
Filter by Australian State/Territory
NSW (5)
SA (2)
  • Researchers (9)
  • Funded Activities (6)
  • Organisations (10)
  • Funded Activity

    Linkage Projects - Grant ID: LP160101871

    Funder
    Australian Research Council
    Funding Amount
    $450,000.00
    Summary
    An Integrated surface conversion for life extension of oil pipelines. This project will propose a novel, cost-effective surface engineering technique that synthesizes an effective surface coating during the pipeline manufacturing process. Seamless Steel pipelines conveying oil and contaminants can have a short life due to erosion-corrosion. The need to develop mitigation techniques against the internal corrosion-erosion has increased significantly as steel pipelines are used in more aggressive e .... An Integrated surface conversion for life extension of oil pipelines. This project will propose a novel, cost-effective surface engineering technique that synthesizes an effective surface coating during the pipeline manufacturing process. Seamless Steel pipelines conveying oil and contaminants can have a short life due to erosion-corrosion. The need to develop mitigation techniques against the internal corrosion-erosion has increased significantly as steel pipelines are used in more aggressive environments. The project expects to develop an integrated surface coating during the manufacturing process, which will provide long-term integrity and extend the life of the pipeline. The forensic evaluation and prediction of the life performance of the pipeline will quantify how the coating will combat effectively erosion-corrosion related problems in oil pipelines.
    Read more Read less
    More information
    Funded Activity

    ARC Future Fellowships - Grant ID: FT120100432

    Funder
    Australian Research Council
    Funding Amount
    $928,218.00
    Summary
    Mechanics of innovative high precision rolling technology in micromanufacturing. This project will focus on the establishment of high precision rolling technology for manufacturing microparts in Australia by using a unique profile and flexible rolling method. A successful outcome will provide an important breakthrough in the microrolling area and new knowledge for advanced micromanufacturing technology and its applications.
    More information
    Active Funded Activity

    Discovery Projects - Grant ID: DP190100738

    Funder
    Australian Research Council
    Funding Amount
    $360,000.00
    Summary
    Mechanics of the shape of thin strip with varying thickness. This project aims to develop an innovative technology for the production of thin strip with controlled varying longitudinal thickness and shape. The project will propose a new thin strip rolling theory and strip shape control strategy providing an improved understanding of the mechanics of manufacturing thin strips with varying longitudinal thickness. The technology to manufacture rolled products with varying thickness for lightweight .... Mechanics of the shape of thin strip with varying thickness. This project aims to develop an innovative technology for the production of thin strip with controlled varying longitudinal thickness and shape. The project will propose a new thin strip rolling theory and strip shape control strategy providing an improved understanding of the mechanics of manufacturing thin strips with varying longitudinal thickness. The technology to manufacture rolled products with varying thickness for lightweight structures is in significant demand for the automotive, aerospace and electronics industries to reduce weight through optimum strip thickness and minimum joints. The benefits will include reduced weight, fuel consumption and construction time of automobiles and aircraft when the developed novel thin strip products are used, and therefore reducing manufacturing costs and negative environmental impacts.
    Read more Read less
    More information
    Active Funded Activity

    Discovery Projects - Grant ID: DP200103152

    Funder
    Australian Research Council
    Funding Amount
    $600,000.00
    Summary
    Designed to last: novel gradient coatings for extreme environments. Hard coatings are frequently applied to equipment operating in harsh environments. Often such coatings are highly brittle and so fragile under stress, especially at high temperatures or in corrosive environments. Premature failure can affect safety and lead to negative economic and environmental consequences. The objective of this project is to combine bioinspired microstructural design with an emerging alloying concept to produ .... Designed to last: novel gradient coatings for extreme environments. Hard coatings are frequently applied to equipment operating in harsh environments. Often such coatings are highly brittle and so fragile under stress, especially at high temperatures or in corrosive environments. Premature failure can affect safety and lead to negative economic and environmental consequences. The objective of this project is to combine bioinspired microstructural design with an emerging alloying concept to produce a breakthrough in the development of engineering coatings; for example, overcoming the long standing trade-off between hardness and toughness. Such an innovative coating is expected to be highly durable in extreme conditions, and in so doing will help transform manufacturing, mining and desalination industries.
    Read more Read less
    More information
    Active Funded Activity

    Discovery Early Career Researcher Award - Grant ID: DE210101773

    Funder
    Australian Research Council
    Funding Amount
    $375,000.00
    Summary
    Ultra-tough coatings via materials engineering . This project aims to develop new generation coatings that combine highly controlled compositions and bio-inspired microstructural characteristics for safety-critical applications. This is made possible through smart materials design, multi-scale modelling and novel fabrication technique. The new coatings are expected to offer exceptionally high toughness underlain by a unique combination of various strengthening modes at multiple length scales. Th .... Ultra-tough coatings via materials engineering . This project aims to develop new generation coatings that combine highly controlled compositions and bio-inspired microstructural characteristics for safety-critical applications. This is made possible through smart materials design, multi-scale modelling and novel fabrication technique. The new coatings are expected to offer exceptionally high toughness underlain by a unique combination of various strengthening modes at multiple length scales. The application of the coatings will enhance the performance and safety of mechanical components in engineering applications, reduce associated costs. In doing so, this project will bring substantial benefits to advanced manufacturing, mining and aerospace sectors.
    Read more Read less
    More information
    Active Funded Activity

    Discovery Projects - Grant ID: DP190100408

    Funder
    Australian Research Council
    Funding Amount
    $540,000.00
    Summary
    Net-shape micro manufacturing of composite micro channels. This project aims to develop a high precision net-shape micro manufacturing technology for the production of composite micro channels in a one-step process with excellent overall performance in quality and productivity. The new technology will enhance the production of commercial micro channels which have extensive applications in micro-electromechanical systems, health, medical and communications industries. This project will improve th .... Net-shape micro manufacturing of composite micro channels. This project aims to develop a high precision net-shape micro manufacturing technology for the production of composite micro channels in a one-step process with excellent overall performance in quality and productivity. The new technology will enhance the production of commercial micro channels which have extensive applications in micro-electromechanical systems, health, medical and communications industries. This project will improve the competitive advantage for Australia in the field of advanced manufacturing and has the potential to stimulate economic benefit and growth of the manufacturing industry.
    Read more Read less
    More information

    Showing 1-6 of 6 Funded Activites

    Advanced Search

    Advanced search on the Researcher index.

    Advanced search on the Funded Activity index.

    Advanced search on the Organisation index.

    National Collaborative Research Infrastructure Strategy

    The Australian Research Data Commons is enabled by NCRIS.

    ARDC CONNECT NEWSLETTER

    Subscribe to the ARDC Connect Newsletter to keep up-to-date with the latest digital research news, events, resources, career opportunities and more.

    Subscribe

    Quick Links

    • Home
    • About Research Link Australia
    • Product Roadmap
    • Documentation
    • Disclaimer
    • Contact ARDC

    We acknowledge and celebrate the First Australians on whose traditional lands we live and work, and we pay our respects to Elders past, present and emerging.

    Copyright © ARDC. ACN 633 798 857 Terms and Conditions Privacy Policy Accessibility Statement
    Top
    Quick Feedback