Active across SALSETH (saliva-based biosensors with microfluidic chips), VITAL-ISE (ion-sensors for multi-analyte detection), and MEDLEM (microfluidic electronic devices for drug administration).
CURTIN UNIVERSITY
Australian university contributing sensor technology, computational geophysics, and environmental science expertise to European research mobility networks.
Their core work
Curtin University is a major Australian research university in Perth that serves as an international partner in European research training and mobility programmes. Their H2020 involvement spans a remarkably diverse range of scientific disciplines — from geophysical modelling and chemical sensors to microfluidics, marine biology, and science education. They primarily host visiting researchers through MSCA staff exchange and fellowship schemes, providing access to Australian research infrastructure, datasets, and expertise that complement European consortium capabilities.
What they specialise in
GEAGAM (geophysical exploration using advanced Galerkin methods) and MATHROCKS (multiscale inversion of porous rock physics using high-performance simulators).
MEDLEM (microfluidic devices for drug administration) and SALSETH (microfluidic chips for intraoral theranostics).
Nexus (marine larval dispersal) and FORECAST (orchid mycorrhizal symbiosis under climate change), their most recent project.
OSOS (Open Schools for Open Societies) and STORIES (Students Visions on the Future of Space Exploration).
How they've shifted over time
Early H2020 work (2015-2018) covered computational geophysics, wine microbiology, and microfluidics — broad fundamental research topics accessed through MSCA mobility schemes. From 2019 onward, the focus sharpened toward applied sensor technologies (biosensors, chemical sensors, electroanalysis) and environmental science (orchid conservation, climate change impacts). The shift suggests a growing emphasis on translational sensor research and ecological monitoring, moving from purely computational and methodological work toward application-driven science.
Curtin is consolidating around sensor technologies and environmental monitoring — a natural convergence that could lead to environmental sensing applications.
How they like to work
Curtin never coordinates H2020 projects and participates overwhelmingly as a third-party partner (9 of 11 projects), which is typical for non-EU institutions in MSCA schemes — they host secondments and provide international research exposure rather than managing project delivery. With 108 unique partners across 33 countries, they maintain a very broad but shallow network, joining different consortia rather than building deep repeat partnerships. This makes them an accessible international partner for any European consortium seeking an Australian node for researcher mobility or access to Southern Hemisphere research contexts.
Curtin has collaborated with 108 unique partners across 33 countries, reflecting the wide-reaching nature of MSCA mobility networks. Their connections span across Europe and beyond, though no single geographic cluster dominates.
What sets them apart
As an Australian university, Curtin offers European consortia something most partners cannot: access to Southern Hemisphere research environments, Australian datasets (particularly valuable in geophysics and marine ecology), and a bridge to the Asia-Pacific research community. Their broad disciplinary range — from advanced numerical methods to biosensors to conservation biology — makes them unusually versatile as a MSCA partner. For consortium builders, Curtin adds genuine international dimension and geographic diversity that strengthens mobility-focused proposals.
Highlights from their portfolio
- MATHROCKSLongest-running project (2018-2023) bridging computational geophysics and high-performance computing, directly aligned with Curtin's strength in numerical methods.
- SALSETHCombines biosensors, microfluidics, and oral health theranostics — sits at the intersection of multiple Curtin expertise areas and represents their applied sensor research direction.
- FORECASTTheir most recent project (2022-2025), studying climate change impacts on orchid-fungal symbiosis — signals Curtin's growing environmental science focus.