Friday, September 19, 2025

Claudia Lagos: Pioneering the Future of Astrophysics from Western Australia

Claudia Lagos is propelling our understanding of the cosmos from the very heart of Western Australia. The University of Western Australia’s own associate professor – whose pioneering work in galaxy formation and evolution has earned her the prestigious Pawsey Medal – is shaping a new era of astrophysics that blends high-powered computer simulations with open-access scientific tools. Her journey, marked by international accolades and a passion for collaborative research, is setting a standard that resonates well beyond Perth.

A Portrait of a Modern Astrophysicist

Based at the UWA node of the International Centre for Radio Astronomy Research (ICRAR), Associate Professor Lagos is dedicated to unravelling the mysteries of galaxy formation. In her day-to-day work, she employs advanced computer simulations to test whether the laws of physics can give rise to structures as remarkable as the Milky Way. This meticulous process – where simulated universes are compared with real astronomical observations – has significantly advanced our grasp of the role that supermassive black holes and star formation play in shaping galaxies. It is this innovative approach that earned her the Pawsey Medal, an award with an enduring legacy since 1967, celebrating early career achievements in physics and radio astronomy.

The SHARK Legacy: Open-Source Science for All

Perhaps one of Lagos’s most influential contributions is the development of SHARK, an open-source semi-analytic model designed for simulating galaxy formation. By making this tool freely available to the global research community, she is fostering a culture of transparency and collaboration that transcends traditional academic silos. In an era when big data and complex simulations are becoming the bedrock of astrophysics, open-source initiatives like SHARK are not only democratizing access to critical research tools but are also setting a benchmark for future projects. Lagos has been clear about her commitment to ensuring that every researcher – regardless of location or resource limitations – can scrutinise and build on her work.

ICRAR, UWA, and the WA Connection

For the people of Western Australia, Lagos’s accomplishments are a source of pride and a clear indicator of the state’s pivotal role in global astronomy. ICRAR has long been recognised as a centre of excellence, underpinning high-profile projects like the Murchison Widefield Array and contributing to the future Square Kilometre Array (SKA) initiative. These efforts benefit from WA’s pristine, radio-quiet skies that allow astronomers to probe the cosmos with minimal interference. Lagos’s work, therefore, not only enriches our scientific understanding but also reinforces the region’s reputation as an essential hub for astronomical research.

Historical Context and Comparisons

The Pawsey Medal that honours Lagos commemorates the legacy of Joseph L. Pawsey, a trailblazer in radio astronomy whose work set the stage for many of today’s breakthroughs. Past recipients of the award have often been at the forefront of emerging technologies and methodologies in physics and astronomy. Lagos’s contributions, particularly her seamless integration of theoretical models with observational data, echo this tradition while simultaneously pushing the boundaries of our knowledge.

Open-source models in astrophysics – such as Durham University’s GALFORM – have provided valuable frameworks in the past, yet SHARK distinguishes itself by its unfettered accessibility and community-oriented design. This commitment to free exchange of ideas is crucial in an era defined by international collaboration. Lagos, who has experienced academic life across Chile, Germany, and Australia, reflects a truly global perspective in science. Her background not only enriches her research but also exemplifies the power of diverse experiences in advancing our collective knowledge.

Implications for the Broader Scientific Community

At a time when the world is grappling with far-reaching challenges – from geopolitical conflicts to climate crises – the unifying nature of scientific enquiry becomes especially important. Lagos has remarked on how the pursuit of knowledge fosters a shared curiosity that transcends borders and differences. In offering tools like SHARK to the wider community, she reinforces the essential notion that science is most effective when it is an open, communal endeavour.

Beyond its academic merits, the development of such computational models has significant economic and environmental implications. WA continues to invest in high-tech research and infrastructure that not only positions the state as a leader in astronomy but also creates opportunities for technology transfer, innovation, and local economic growth. The enhanced understanding of cosmic phenomena can inspire new technologies and inspire future generations of scientists in both Australia and beyond.

Looking to the Future

Claudia Lagos’s achievements are a testament to the dynamic interplay between innovative research, collaborative spirit, and the unique resources available in Western Australia. As her work paves the way for future discoveries, it also raises important questions about how we can better harness global talent in tackling the most profound scientific mysteries. With initiatives like SHARK, the astronomical community is now better equipped to explore the cosmos, ensuring that our understanding of the universe continues to grow in clarity and depth.

For Western Australia, Lagos’s success is not just an isolated triumph but is emblematic of the broad, transformative potential held within local research institutions and the collaborative networks they forge globally. Her journey from Chile to some of the most influential scientific hubs in the world underscores the universal language of curiosity and exemplifies how the demands of modern science can be met with ingenuity and inclusiveness.

Sources:
• Australian Academy of Science: Pawsey Medal – https://www.science.org.au/awards/pawsey-medal
• 2023 Honorific Awards Announcement – https://www.science.org.au/news-and-events/news/2023-australian-academy-science-honorific-awards
• UWA Profile: Claudia Lagos – https://www.uwa.edu.au/staff/claudia-lagos
• SHARK Model (GitHub repository) – https://github.com/clagos/shark
• ICRAR: About Us – https://www.icrar.org/about/
• SKA Australia – https://www.ska.gov.au/
• MERAC Prize for Theoretical Astrophysics – https://www.eas.eu/merac-prizes
• Chile’s “100 Women Leaders” – https://www.100mujereslideres.cl/
• Sloan Digital Sky Survey – https://www.sdss.org/
• GALFORM Model – https://www.galformodelling.org/

Western Australia’s Coral Reefs: A Battle for Survival Amid Climate Change and Conservation Challenges

Coral reefs stand as nature’s vibrant underwater metropolises, supporting roughly one‐third of all marine species and bolstering the livelihoods, food security, and safety of over a billion people worldwide. Yet, their dazzling beauty conceals a mounting crisis that resonates strongly in Western Australia, where legendary ecosystems like Ningaloo Reef are under siege from the relentless forces of climate change, overfishing, and pollution. As research on global coral restoration efforts intensifies—painting a stark picture of astronomical costs and limited success—it is clear that for WA, as elsewhere, effective reef conservation must extend far beyond the transplanting of a few corals.

A Ticking Clock on an Irreplaceable Resource

Historically celebrated as shimmering havens for biodiversity, coral reefs are now facing an existential threat. The process of coral bleaching—where rising sea temperatures during marine heatwaves force stressed corals to expel their essential symbiotic algae—has become alarmingly routine. Recent episodes along Australia’s northwest coast, where vast stretches of Ningaloo Reef were bleached during a severe warm-water event, echo the distressing trend documented worldwide (for an overview of marine heatwave impacts, see the National Oceanic and Atmospheric Administration at https://coralreef.noaa.gov/threats/).

In Western Australia, the stakes feel particularly high. Reef ecosystems along the coast, including the famed Ningaloo, contribute substantially to the local economy—not only by drawing eco-tourists whose spending injects millions of dollars into regional communities (Parks Australia details the economic importance of Ningaloo at https://parksaustralia.gov.au/ningaloo/discover/highlights/value-of-the-area/) but also by underpinning fisheries that bring in hundreds of millions of dollars each year. Beyond these direct benefits, healthy reefs serve as natural barriers that protect coastal towns and infrastructure from the ravages of storm surges and erosion.

The Mirage of Restoration

Efforts to restore damaged reefs have surged in the past decade, with a range of techniques now under trial—from coral gardening, where fragments cultivated in underwater nurseries are transplanted onto scarred reefs, to pioneering approaches that manipulate the microbiomes of corals in hopes of bolstering their resistance to heat stress. Yet, such methods have largely been confined to small, isolated patches of reef. Restoration projects typically rehabilitate only a few hundred to a few thousand square metres at a time, a stark contrast to the nearly 12,000 square kilometres of reef lost or degraded globally in just one decade.

Recent research estimates that restoring 10% of the world’s degraded coral areas could require investments exceeding A$26 trillion when high-end costs—up to A$226 million per hectare—are factored in. This sum is almost ten times the annual GDP of Australia, emphasizing that relying solely on restoration efforts is not only financially impractical but also an insufficient response to the scale of global coral loss (detailed cost assessments and failure rates, including a 35% failure figure due to poor planning and unanticipated climate events, are discussed in various scientific studies, for example see https://doi.org/10/gjz9mh).

Local Lessons and Global Comparisons

For Western Australia, the implications are uniquely acute. Ningaloo Reef, a marine jewel recognised for both its natural splendour and economic significance, has seen its own share of bleaching events—a sobering reminder that even protected sites are not immune to the sweeping impact of climate change. In comparing global trends with WA’s reality, researchers note that while coral gardening and seeding are the mainstays of restoration worldwide, the remoteness and rugged coastline of Western Australia often drive up logistical costs. This means that techniques which might be cost-effective in more accessible regions can soar in price when applied to remote reef locations along WA’s vast coastline.

Furthermore, restoration efforts around WA have sometimes been focussed in areas already compromised by human activity. In many cases, reefs closest to urban centres are targeted for restoration initiatives—not necessarily because they offer the best potential for long-term recovery, but because of easier access and greater immediate human interest. This approach risks perpetuating a cycle where only the less diverse, already-degraded sites receive attention, while ecologically critical areas remain unaddressed (see comparisons in studies at https://www.aims.gov.au).

Innovations and Community-Driven Solutions

Despite these challenges, hope is not entirely lost. Local scientists and institutions are spearheading innovative research to enhance coral resilience. Collaborative projects between the University of Western Australia (UWA) and the Australian Institute of Marine Science (AIMS) are experimenting with “assisted evolution” strategies. These involve selectively breeding heat-resistant corals that are better equipped to survive in warming seas—a promising development that could, in time, improve the success rates of restoration projects (more on this research can be found at https://www.aims.gov.au).

Simultaneously, Western Australian communities have embraced citizen science programmes that both educate and empower. Initiatives like the “Coral Warrior” project at Ningaloo Reef actively involve volunteers in transplanting coral fragments. By engaging local divers, tourists, and First Nations rangers—whose traditional knowledge of marine environments adds indispensable insight—these programmes foster a greater sense of environmental stewardship while supplementing scientific conservation efforts. Such inclusive measures have the potential not only to aid in recovery but to transform how local communities interact with their marine environments.

Policy, Protected Areas, and a Call for Integrated Action

The sobering reality of skyrocketing restoration costs underscores a critical truth: coral restoration, while offering hope in isolated cases, cannot substitute for comprehensive climate action. Without significant reductions in greenhouse gas emissions, the frequency and severity of bleaching events will only increase, undermining even the most painstaking restoration work. In Western Australia, this has prompted calls for a more holistic approach that includes strengthening marine protected areas (MPAs) and enforcing regulations to limit overfishing and pollution—strategies that have already shown success in regions such as Shark Bay and parts of the Ngari Capes Marine Park (further information on WA marine parks is available at https://wamsi.org.au).

Policymakers in Perth and beyond are also considering integrating traditional management practices. Indigenous communities, with deep-seated connections to the sea, are playing increasingly prominent roles in monitoring and managing reef health. Their involvement is proving vital in the co-management of marine environments and ensuring that conservation strategies are both culturally resonant and ecologically effective.

Looking Ahead

As reef ecosystems worldwide face unprecedented challenges, Western Australia finds itself at a crossroads. The allure of coral restoration projects has stimulated significant community engagement and local research; however, these projects must be complemented by urgent, far-reaching efforts to address climate change at its source. Without a robust reduction in global temperatures and a committed expansion of conservation measures, the dreams of restoring coral reefs will remain tantalisingly out of reach.

For clean, resilient reefs to endure into the future, efforts must be layered—integrating scientific innovation, local community initiatives, traditional environmental management, and rigorous policy enforcement. Only then can the vibrant underwater gardens that have long defined Western Australia’s natural heritage be preserved for generations to come.

Sources:
• National Oceanic and Atmospheric Administration (NOAA) Coral Reef Threats: https://coralreef.noaa.gov/threats/
• Parks Australia – Economic Value of Ningaloo Reef: https://parksaustralia.gov.au/ningaloo/discover/highlights/value-of-the-area/
• Australian Institute of Marine Science (AIMS): https://www.aims.gov.au
• Cost assessments and scientific studies on coral restoration: https://doi.org/10/gjz9mh
• Western Australian Marine Science Institution (WAMSI): https://wamsi.org.au

Revolutionising Displays: Curtin University Unveils Eco-Friendly Blue QLED Breakthrough

Curtin’s Quantum Leap: Greener Blue LEDs Signal a Brighter, Sustainable Future

Curtin University, a longstanding pillar of innovative research in Western Australia, has unveiled a breakthrough in display technology that promises not only superior performance but also a reduced environmental footprint. The newly developed cadmium‐free blue quantum dot light-emitting diodes (QLEDs) mark a significant milestone in optoelectronic research – one that could transform the screens and lighting of tomorrow’s devices while contributing to WA’s broader green technology ambitions.

A Technological Milestone in Eco-Friendly Displays

For years, engineers and scientists have pursued the goal of creating blue QLEDs that match the vibrancy and efficiency of their cadmium-based counterparts without the toxic baggage. The challenge lay in maintaining a high external quantum efficiency and long operational lifespan when stripping out hazardous heavy metals. Associate Professor Guohua Jia from Curtin’s School of Molecular and Life Sciences and his team have now succeeded by engineering a new class of quantum dots composed of zinc, selenium, tellurium, and sulphur (ZnSeTeS). This innovative composition delivers a pure, vibrant blue emission with an impressive 24.7 per cent efficiency and a stability that sees the devices enduring nearly 30,000 hours of use.

At the heart of this breakthrough is the atomic-level fine-tuning of the quantum dots. By meticulously reducing structural defects that typically diminish light emission, the researchers have achieved a uniform material that delivers enhanced brightness and stability. With these advances, the new QLEDs are poised to outperform traditional cadmium-containing devices, aligning cutting-edge performance with environmental responsibility.

From WA’s Laboratories to Global Markets

The significance of Curtin University’s development extends well beyond the lab. QLEDs are set to become the foundation of future generations of televisions, smartphones, virtual reality headsets, and energy-efficient lighting. The increased efficiency and longevity of the new blue quantum dots not only promise enhanced colour accuracy and brightness but also indicate a substantial reduction in the environmental impacts typically associated with display technology manufacture and disposal.

Internationally, companies such as Samsung have popularised QLED displays in consumer electronics; however, these screens have historically relied on materials that pose ecological hazards. Curtin’s innovation, documented in the prestigious journal *Nature*, suggests that the future of display tech can be bright and sustainable – a dual promise that resonates particularly with industries and environmental advocates alike.

Western Australia: A Natural Synergy with Emerging Technologies

Western Australia has long been at the heart of discussions about resource sustainability and green innovation. The state’s mining industry, known for its production of critical minerals such as zinc and tellurium, could now find a complementary economic role in supplying the raw materials for next-generation quantum dots. This local availability may translate into a highly integrated supply chain, benefiting both the mining sector and high-tech manufacturing communities in WA.

Moreover, Curtin University’s breakthrough fits squarely with state and federal policies aimed at promoting sustainability. By eliminating cadmium—a toxic heavy metal—from advanced display technologies, this research supports Western Australia’s ongoing efforts toward cleaner production methods and environmental stewardship in manufacturing. It provides a tangible example of how local innovation can dovetail with broader global trends to reduce hazardous waste and minimise the environmental impact of modern electronics.

Collaborations that Transcend Borders

The study behind this breakthrough is a model of international collaboration, involving researchers from prominent Chinese institutions including Shanghai University, Jilin University, Fudan University, and the Chinese Academy of Sciences, as well as significant corporate partners like TCL Research. Such partnerships have not only fortified the research with diverse expertise but have also underscored the global nature of the challenges facing contemporary material science. The cross-national approach exemplifies how cutting-edge ideas and technological solutions are increasingly the product of worldwide cooperation—a theme that is becoming ever more prominent in WA’s research and industry sectors.

Paving the Way for Future Innovation

Curtin University’s breakthrough is expected to have far-reaching implications for the fields of optoelectronics and display technology. Besides improving the performance dimensions of modern displays, the work lays a foundation for subsequent innovations in high-definition lighting and next-generation communication devices. With rigorous scientific methodology and an eye on sustainability, the research team’s achievement not only sets a new benchmark in quantum dot efficiency and longevity but also reinforces Western Australia’s growing influence in advanced technology research.

This advancement arrives at a crucial moment for WA. In recent years, the state has seen notable progress in diverse areas such as renewable energy, healthcare innovation, and advanced materials science. Curtin’s success in developing eco-friendly blue QLEDs is a natural extension of this trajectory, promising to boost local industries and attract further high-tech R&D investments into the region. With its blend of academic excellence, sustainable practice, and international collaboration, Curtin University’s work illustrates a practical pathway towards a future where performance and environmental responsibility are not mutually exclusive.

Looking Ahead

The advent of cadmium-free blue QLEDs signals a new paradigm for the electronics industry—one that could see devices not only becoming more vibrant and energy-efficient but also greener by design. As Western Australia positions itself on the global research stage, breakthroughs like this underscore the opportunity for locally produced innovations to have far-reaching benefits for consumers, industries, and the environment alike.

Curtin University’s pioneering work heralds a future in which technology need not compromise on ethics or sustainability. With international collaboration fuelling these advances and local resource synergies promising to underpin commercial viability, the state is well placed to be at the forefront of a new era in energy-efficient, eco-friendly electronics.

UWA’s Revolutionary Sensor Technology Set to Transform Western Australia’s Agricultural Future

UWA’s Breakthrough Sensor Technology Poised to Redefine WA’s Ag-Tech Landscape

In a bold step towards redefining precision agriculture, researchers from The University of Western Australia (UWA) are joining forces with Perth-based startup Magic Wavelength to commercialise a pioneering sensor technology. The innovative microelectromechanical systems (MEMS) spectrometer, developed by UWA’s Microelectronics Research Group (MRG), promises to democratise real‐time crop health monitoring by dramatically reducing both the size and cost traditionally associated with laboratory-grade devices. This collaborative venture not only underscores UWA’s long-standing commitment to scientific excellence but also positions Western Australia at the forefront of agri-tech innovation.

A New Era in Crop Monitoring

Historically, infrared spectroscopy equipment used to assess crop health has been a costly, bulky affair—often exceeding $100,000 and confined to controlled laboratory environments. As explained by Professor Laurie Faraone of the MRG, the new MEMS sensor transforms this paradigm by harnessing semiconductor technology to produce an instrument that is both affordable and portable. Using the infrared spectrum of a leaf, the device can instantly gauge a plant’s vitality, detecting issues such as water stress or nutrient deficiency on the spot.

“This innovation essentially lets the plant tell you how it is doing,” said Professor Faraone. “By using cutting-edge semiconductor expertise in tandem with insights from the UWA Institute of Agriculture, we have created a tool that is both sensitive and practical for everyday farming.” (UWA, 2025, https://www.uwa.edu.au/news/article/2025/march/uwa-technology-set-to-transform-agricultural-monitoring)

The research builds on decades of work at the MRG, one of Australia’s preeminent semiconductor research groups. Its legacy of excellence has now been extended into the agricultural sphere through a partnership with Magic Wavelength—a startup spearheaded by UWA PhD graduate Dr Kevin Fynn. Magic Wavelength’s prototype has already demonstrated performance comparable to that of commercial laboratory spectrometers, yet in a rugged, field-ready format.

Bridging the Gap Between Research and Real-World Application

The significance of this development lies not only in its technological merits but also in its potential to reshape the agricultural landscape both locally and globally. Traditional spectrometers have long been the preserve of specialized research facilities, making them ill-suited to the dynamic and resource-constrained environments of modern farms. By creating a sensor that can be handheld or mounted on drones, UWA and Magic Wavelength are effectively bringing real-time, actionable data directly to the farmer’s fingertips.

This capability is crucial in an era where efficient resource management is not just a matter of profitability but also environmental stewardship. With climate change imposing unprecedented stresses on water supplies and soil fertility across Western Australia’s wheatbelt and beyond, tools that provide instant insights into crop health can assist farmers in more precise application of water and fertilisers. This, in turn, minimises waste and reduces the environmental footprint of farming operations—a vital consideration in sustainable agriculture policy.

Empowering Local Economies and Fostering Innovation

More than a technological breakthrough, this project exemplifies the power of academic-industry partnerships in driving economic growth. By commercialising a sensor developed in-house at UWA, the venture safeguards and nurtures local expertise while counterbalancing international pressures. Dr Fynn has made it clear that, despite attractive offers to establish MEMS semiconductor facilities overseas, his priority remains on seeding critical aspects of semiconductor manufacturing in Western Australia.

In an environment where global supply chains and manufacturing expertise are in constant flux, this decision reflects a broader strategy to retain high-value technological investments within the region. The prospect of scaling up production domestically is buoyed by recent federal funding initiatives. The UWA-Magic Wavelength project has been awarded an Australian Economic Accelerator grant worth $462,700 over the next 12 months, an investment aimed at developing a prototype ready for production (UWA, 2025, https://www.uwa.edu.au/news/article/2025/march/research-grants-ignite-more-sustainable-future). The proceeds from this agreement will also be reinvested into future research and teaching, thereby cultivating a fertile ground for further innovations in MEMS technology.

Perth’s agri-tech community benefits not only from the tangible economic returns of such a project but also from the intangible asset of local expertise. The collaboration speaks to a vision where state-of-the-art research directly informs practical, day-to-day agricultural practices—setting a precedent for future partnerships between academia and industry.

Global Implications and Future Prospects

While the immediate impact of the new sensor technology is poised to be felt on the ground in Western Australia, its potential reach spans the global agricultural landscape. The low cost and ease of deployment make it an attractive tool for large-scale commercial farms as well as for smallholder operations in regions such as Southeast Asia, where access to modern agri-tech has traditionally been limited. The technology promises to level the playing field by offering precision agriculture capabilities to a broader spectrum of farmers, fostering a more equitable global agricultural market.

The global demand for real-time agricultural data has spurred a wave of innovation in sensor technology around the world—from optical fibre-based sensors used in marine monitoring to AI-driven gas sensing systems in urban environments. Although each application is tailored to its own set of challenges, the underlying drive is the same: to generate actionable insights quickly and efficiently. UWA’s MEMS spectrometer follows in this innovative tradition and illustrates how advancements developed in academic research can have profound, real-world applications.

Historical Context and Technological Readiness

Over the past two decades, the field of microelectronics has undergone radical transformation, significantly lowering the barriers to building highly sensitive yet compact sensors. The UWA MRG has been at the forefront of this evolution, accumulating a wealth of knowledge that has now been channelled into the MEMS spectrometer project. The decades-long research journey is crucial in understanding the weight of this breakthrough—it is not a sudden invention but the culmination of sustained, meticulous exploration into semiconductor and infrared technologies.

The historical context of sensor development in Western Australia is replete with examples of translating state-of-the-art research into commercial successes. Prior initiatives in the region have demonstrated that partnerships between universities and local startups can produce technologies that not only serve niche markets but also have the potential to disrupt traditional industries. By reinvesting commercialisation proceeds back into research and teaching, UWA is reinforcing a virtuous cycle that promises to yield further breakthroughs, ensuring that Western Australia continues to be a melting pot of innovation in both semiconductor technology and agriculture.

Looking Ahead

As the project moves from prototype to production, the broader agri-tech community in Western Australia is watching with keen interest. The promise of affordable, portable, and accurate crop health monitoring could signal the beginning of a new era where agricultural practices are informed by real-time, high-resolution data. For farmers, the ability to swiftly identify and address issues in crop health can lead to significant improvements in yield and resource management—and ultimately, boost the resilience of food production in a rapidly changing climate.

In combining academic rigour with entrepreneurial spirit, UWA and Magic Wavelength have charted a course that is as promising economically as it is environmentally. Should this technology reach its full potential, Western Australia may yet emerge as a leading hub for advanced agri-tech solutions, illuminating a path for similar initiatives worldwide.

Sources:
• University of Western Australia. UWA technology set to transform agricultural monitoring. Available: https://www.uwa.edu.au/news/article/2025/march/uwa-technology-set-to-transform-agricultural-monitoring
• University of Western Australia. Research grants Ignite More Sustainable Future. Available: https://www.uwa.edu.au/news/article/2025/march/research-grants-ignite-more-sustainable-future

By bridging the gap between cutting-edge research and practical application, this venture not only propels Western Australia further into the global spotlight for innovation but also reaffirms the region’s commitment to advancing sustainable, smart agriculture for the future.

How a Small Coastal Town is Closing Australia’s Tech Divide

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In the shadow of Ningaloo Reef’s turquoise waters, a quiet revolution is taking place at Exmouth Library, where nine eager students are learning skills that could one day see them among the ranks of Australia’s tech innovators. It’s a scene that might surprise visitors who know Exmouth primarily for its whale sharks and pristine beaches rather than digital innovation.

Coding by the Coral Coast

The afternoon sessions, which kicked off earlier this month, introduce students to the fundamentals of coding through Scratch, a visual programming language that makes learning code accessible and engaging for young minds. The workshops are held after school hours, with the first session bringing nine enthusiastic students to the library at 3 PM, ready to build their own characters and games.

What makes this initiative particularly noteworthy isn’t just what’s being taught, but where it’s happening. The Creative Bytes program was specifically created to bridge the growing gap between digital literacy learning opportunities in regional or remote areas compared to metropolitan centers. While coding workshops have become increasingly common in Perth, such opportunities have traditionally been scarce in places like Exmouth.

Bridging the Digital Divide

For many Perth residents, coding classes and tech bootcamps have become almost commonplace, with options ranging from after-school programs to weekend workshops at venues across the city. But in regional WA, such opportunities have been limited, contributing to what experts refer to as the “urban-rural digital divide.”

Creative Bytes, founded in 2021 by Melbourne-based Stewart McMillan and Heath Gilham, aims to address this imbalance. Their program provides not just curriculum and access to the Scratch platform, but also laptops for students who need them—ensuring that financial constraints don’t become barriers to participation. This accessibility feature is crucial, as it ensures all interested students can participate regardless of their background or previous experience with coding technology.

The workshops are led by Shire of Exmouth staff who have undergone training through Creative Bytes lesson plans. This community-led approach ensures local ownership of the program while maintaining high educational standards.

Part of a Larger Vision

The Exmouth coding initiative doesn’t exist in isolation. It’s part of a broader push by the Shire of Exmouth to position the town as forward-thinking despite its remote location. Recent years have seen the community embrace several technology-driven projects, including Horizon Power’s electric vehicle trials and the development of EV charging infrastructure.

This balancing act—embracing technological advancement while maintaining connection to place—feels familiar to many Perth residents who have witnessed their own city’s evolution from a “big country town” to a modern metropolis without losing its relaxed coastal character.

Challenges and Opportunities

While enthusiasm for the program is evident, challenges remain. Western Australia’s digital inclusion index, which stood at 73.2 in 2023, reveals ongoing struggles with connectivity in remote areas. Internet access—something Perth residents might take for granted while using their devices at Elizabeth Quay or Yagan Square—remains inconsistent in parts of the regions.

There’s also the question of sustainability. Currently, programs like Creative Bytes rely heavily on grants and partnerships, raising questions about long-term viability without ongoing funding.

Yet these challenges are balanced by tremendous opportunities. The WA e-learning market has embraced mobile-first strategies and interactive content like gamification—approaches that Creative Bytes incorporates into its curriculum. As Perth continues its own journey toward becoming a technology hub within the Indo-Pacific region, initiatives like Exmouth’s coding workshops create potential talent pipelines that could benefit the entire state.

A Model for the Future

For Perth residents watching the evolution of regional education, Exmouth’s approach offers valuable insights. By adapting metropolitan-style tech education to fit local needs—through community-led delivery and attention to accessibility—the program creates a replicable model that could work across WA’s vast regions.

The ten-week program will cover key aspects of Science, Technology, Engineering, and Mathematics (STEM), all while students develop engaging games and characters. This approach makes learning fun and interactive, potentially increasing student retention and interest in pursuing further tech education.

The social impact of such initiatives extends beyond immediate skills acquisition. By empowering youth with future-ready digital literacy, the program may help reduce regional brain drain by creating local tech pathways and strengthening Exmouth’s appeal as a tech-friendly hub—a concern familiar to many regional communities across Western Australia.

As Perth continues to debate the balance between development and heritage, between innovation and tradition, communities like Exmouth demonstrate that embracing technological advancement doesn’t have to mean abandoning local character. In fact, by giving regional students the tools to solve local problems through technology, these programs might help preserve what makes regional communities special.

For the nine students currently building their first games and characters at Exmouth Library, the focus is on developing coding skills that could open doors to future opportunities. But with each line of code they write, they’re also participating in a broader story about digital equity and regional empowerment—one where postcodes don’t determine digital opportunities, and where innovation can flourish as readily beside the reef as it does beside the river.

un.perth is committed to highlighting stories of innovation throughout Western Australia. If your community has a similar initiative, we’d love to hear about it.

Transforming Perth: A Bold Vision for Community Sport and Recreation Hub

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Revitalising Perth: A New Vision for Community Sport and Recreation

In a significant move towards urban revitalisation, the City of Perth has unveiled its draft Masterplan for a new community sport and recreation hub, inviting public comment until 12 March 2025. This ambitious plan, rooted in extensive community consultation throughout 2024, aims to address the growing demand for community facilities while potentially introducing new housing options to the area.

A New Urban Precinct

The draft Masterplan proposes the consolidation of various sports and community facilities into a cohesive urban precinct. By efficiently utilising available land and resources, the plan envisions a vibrant space that integrates seamlessly with Perth’s evolving infrastructure. The precinct’s strategic location near the newly enhanced Causeway Bridge positions it as a focal point for both residents and visitors, promising to transform the eastern gateway of the city into a dynamic destination.

Community-Driven Development

The development of the Masterplan has been a collaborative effort, incorporating insights from a detailed site analysis, a Sports and Recreation Needs Analysis, and a Market and Economic Assessment. This comprehensive approach ensures that the plan not only meets current community needs but is also adaptable to future demands. The City of Perth’s commitment to community engagement is evident, as the draft Masterplan reflects the aspirations and feedback gathered from residents throughout the consultation process.

Economic and Social Implications

The proposed hub is more than just a collection of facilities; it represents a strategic investment in Perth’s social and economic future. By creating a space that encourages active lifestyles and community interaction, the plan aims to enhance the quality of life for residents. Moreover, the potential introduction of housing within the precinct could address urban density challenges, offering a sustainable solution to accommodate Perth’s growing population.

Looking Ahead

As the draft Masterplan enters the public comment phase, the City of Perth invites residents to participate in shaping the future of their community. Feedback collected during this period will be instrumental in refining the final plan, ensuring it aligns with the community’s vision and needs.

The initiative reflects a broader trend of urban renewal projects across Australia, where cities are reimagining public spaces to foster community well-being and economic vitality. By drawing on successful examples from both local and international contexts, Perth’s approach could serve as a model for other cities seeking to balance growth with liveability.

For those interested in contributing to this transformative project, further information and the opportunity to provide feedback are available on the Engage Perth website. The City’s Customer Experience Team is also accessible for inquiries, underscoring the City’s commitment to transparency and community involvement in this pivotal development.

Image Credit: City of Perth – An image of East Perth, showcasing the area poised for transformation under the new Masterplan.

 

Rottnest Fast Ferries Launches Ocean Master Catamaran to Boost WA Tourism and Sustainability

Rottnest Fast Ferries has unveiled its new Ocean Master catamaran, an initiative that promises to enhance transport services to Rottnest Island and strengthen Western Australia’s tourism framework. This development comes amid continued investments in the island’s infrastructure, which include recent upgrades at Geordie Bay and renovations at the Main Jetty, all aligning with WA’s strategic tourism plans through 2030.

Enhancing Visitor Experience

The Ocean Master catamaran is designed to improve the journey to Rottnest Island by offering increased comfort, efficiency, and reliability. The move aims to support the island’s role as a major tourism asset for WA, where visitor numbers reach approximately 800,000 annually. This level of engagement contributes around $283 million in spending and supports roughly 2,180 jobs across the state. Such figures underscore the economic importance of Rottnest Island, both as a leisure destination and as a driver of local employment.

Economic and Strategic Impact for WA

For Perth residents and the wider WA community, the introduction of the Ocean Master signifies a commitment to enhancing accessibility and supporting sustainable tourism growth. Improved ferry services can lead to a more balanced distribution of visitor flows, contributing to increased economic activity in the hospitality, retail, and service sectors. These developments complement broader tourism initiatives that include direct international flights and high-profile events aimed at raising WA’s profile on the global stage.

A Step Forward in Sustainable Tourism

Recent investments in Rottnest Island’s infrastructure have focused on creating a visitor experience that is both enjoyable and sustainable. Upgrades to local facilities, along with initiatives that promote eco-friendly tourism such as wildlife conservation programs and certified tours, reflect a comprehensive approach to managing growth. The Ocean Master is expected to integrate with these efforts by providing a reliable means of transport that supports responsible visitor management and contributes to the overall sustainability of the tourism sector.

Looking Ahead

The launch of the Ocean Master marks an important milestone for WA’s tourism sector. As infrastructure improvements continue and strategic investments expand, the state positions itself to benefit from increased tourism while maintaining a commitment to environmental and cultural preservation. Upcoming events, including open days and further enhancements to Rottnest Island’s facilities, will offer additional opportunities to evaluate the impact of these initiatives on local communities and the broader economy.

WA Array Project: Pioneering the Future of Mining and Sustainability in Western Australia

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The Cook Government’s recent release of seismic data from the WA Array project marks a major step toward enhancing Western Australia’s understanding of its complex geology. More than just a scientific initiative, the $30 million, decade-long investment is poised to reshape mineral exploration, contribute to seismic hazard assessment, and support WA’s broader transition to a net-zero economy.

While this project might seem technical on the surface, its economic, environmental, and industrial implications will be felt across the state, including in Perth. By improving geoscientific data, WA strengthens its ability to attract mining investment, mitigate seismic risks, and balance land use for sustainable development.

What is the WA Array Project?

The WA Array is a passive seismic survey launched in 2022 by the Geological Survey of Western Australia (GSWA). Using 165 seismometers arranged in a 40-kilometre grid, the project is creating high-resolution, 3D images of the Earth’s crust across the entire state. Each year, the seismometers are repositioned to cover a different regional area, with the full mapping expected to take nine years.

This initiative builds upon previous national seismic surveys (such as AusArray) but significantly improves resolution, making it one of the largest and most detailed passive seismic projects in the world. The Phase 1 data, covering WA’s South West, is now publicly available on the Australian Passive Seismic Server (AusPass).

Why This Matters to WA

While seismic surveys are typically associated with oil and gas exploration, the WA Array focuses on critical minerals—elements essential for renewable energy technologies, batteries, and electric vehicles (EVs). With global demand for lithium, nickel, and rare earth elements surging, the Cook Government sees geoscience innovation as a way to cement WA’s leadership in the future energy economy.

The project has several key objectives:

Unlocking new mining opportunities: By providing high-resolution geological data, exploration companies can pinpoint mineral-rich areas more efficiently, reducing financial risks and unnecessary drilling.

Supporting net-zero goals: WA needs significant amounts of nickel, lithium, and rare earths for battery storage and clean energy. Mapping these deposits is crucial to meeting global demand.
Mitigating seismic hazards: Advanced crustal imaging will improve earthquake risk assessments, protecting infrastructure and communities from unexpected geological events.

Balancing land use: As WA transitions away from fossil fuels, the data can help plan sustainable development, ensuring mining, conservation, and Indigenous heritage protection coexist.

The Economic Impact: Securing WA’s Mining Future
Western Australia’s mining sector generates over $136 billion annually and employs more than 145,000 people. With traditional resources like iron ore facing increased competition, the government is pushing for diversification into battery minerals and green technologies.

By improving mineral targeting, the WA Array enhances WA’s investment appeal, making it easier for exploration companies to justify large-scale projects. Similar initiatives, such as WA’s Exploration Incentive Scheme (EIS), have already contributed to major mineral discoveries, including:

Rare earth elements in West Arunta (EIS-funded Rincon Resources project)
Nickel deposits in the Fraser Range (leading to IGO’s Nova mine)
Lithium-rich pegmatites in the Pilbara, critical for EV battery production
WA competes globally for mining investment, and countries like Canada and Chile are ramping up exploration subsidies. If WA wants to maintain its dominance, world-leading geoscience initiatives like the WA Array are essential.

Environmental and Indigenous Considerations
While the project focuses on economic growth, it also raises environmental and cultural considerations. Increased mineral exploration could lead to greater land disturbance and potential conflicts over land access.

Key considerations include:

Indigenous land rights: The seismic survey covers areas with significant Aboriginal cultural heritage, requiring ongoing consultation with Traditional Owner groups.
Balancing conservation and mining: WA’s environmental groups have long raised concerns about mineral extraction near national parks and biodiversity hotspots.
Bridging data gaps: The WA Array’s open-access model ensures public transparency, but ensuring Traditional Owners and environmental groups can interpret and use the data effectively is critical.
The destruction of Juukan Gorge in 2020 by Rio Tinto exposed the gaps in cultural heritage protections within WA’s resources sector. While the WA Array itself does not involve excavation, better geological knowledge can empower communities to make informed land-use decisions.

Comparison with Past Initiatives

This is not WA’s first large-scale geophysical survey. However, it is unique in its scale, resolution, and passive seismic approach. Comparing it with past projects provides insight into its impact:

Project Scope Outcome
WA Array (2022–2032) Statewide passive seismic survey with high-resolution imaging Open-access data for industry, research, and hazard assessment
AusArray (2018–2025) National passive seismic survey, lower resolution Broad geological framework, but less detail for exploration
Exploration Incentive Scheme (EIS) Co-funded drilling and geophysics projects Led to key mineral discoveries, but smaller-scale mapping
Pilbara Passive Seismic Survey (2015) Regional seismic imaging focused on iron ore regions Provided insights for mining, but limited to specific sites
The WA Array scales up previous efforts, offering unprecedented detail that could reshape WA’s approach to resource management.

Challenges and Feasibility

While the WA Array presents significant benefits, it also faces challenges that could impact its success.

Data Interpretation and Accessibility

High-resolution seismic data is complex. Smaller exploration companies may lack the expertise to fully utilize it.
Encouraging collaborations between government, academia, and industry will be key to translating raw data into actionable insights.
Environmental and Regulatory Risks

While seismic surveys are non-invasive, the mining projects they enable could face resistance from conservation groups.
Future land-use planning must balance mining expansion with environmental protections.
Funding and Longevity

The $30 million budget over 10 years relies on continued government support.
Political shifts or economic downturns could put funding at risk, so securing long-term investment stability is crucial.
Global Competition

Canada and Chile are making significant investments in mineral exploration.
WA must stay ahead by ensuring its geoscience infrastructure remains world-class.

What Comes Next?

The first detailed models from Phase 1 of the WA Array were presented at GSWA’s Open Day in Perth on 15 November 2024. The event showcased how the data can be applied to mining, hazard mitigation, and environmental planning.

As the project moves into Phase 2 and beyond, it will provide a complete seismic picture of WA, helping shape the future of mining, clean energy, and land-use policy.

For Perth and WA residents, the WA Array is more than just a geophysical project—it’s a blueprint for how the state navigates the next era of economic and environmental transformation.

Conclusion

The WA Array project represents a major leap forward in WA’s resource strategy, combining cutting-edge geophysics with economic and environmental foresight. With climate change, global competition, and Indigenous land rights shaping the mining industry’s future, this initiative could be the key to unlocking WA’s next generation of mines while balancing sustainability and heritage protection.

As WA positions itself as a leader in critical minerals and renewable energy, high-resolution geological data will be one of its most valuable assets. The challenge now is to ensure that this knowledge translates into smart, sustainable, and equitable decision-making for the future.

Securing WA’s Water Future: The Impact of the New Water Deal with Rio Tinto.

Water security in Western Australia is entering a new era. The Cook Government’s recent Memorandum of Understanding (MoU) with Rio Tinto to expand desalination infrastructure in the Pilbara is more than just a corporate-government deal—it’s a direct response to climate pressures, Indigenous concerns, and the ongoing demand for sustainable industry growth.

While the agreement primarily targets the West Pilbara Water Supply Scheme (WPWSS)—which services Karratha, Dampier, Wickham, Roebourne, and key industrial sites like Cape Lambert and the Burrup Peninsula—its ripple effects will be felt across WA. From ensuring long-term industrial sustainability to protecting Indigenous water rights and setting a precedent for future desalination efforts, this initiative is one of the most significant water projects in the state’s history.

Why This Matters to WA

For many Perth residents, news about Pilbara water security might seem distant. After all, we’re not turning on our taps and expecting water from Karratha or Roebourne. But what happens in the Pilbara doesn’t stay in the Pilbara—it has profound implications for WA’s economy, environment, and Indigenous relations.

The Pilbara is the heart of WA’s mining sector, producing the bulk of the state’s iron ore exports—an industry worth over $136 billion annually. This sector is heavily reliant on water, not just for dust suppression and processing but for sustaining the regional workforce and towns that keep these mines running. Ensuring reliable water access means ensuring stability in one of WA’s biggest economic engines.

At the same time, concerns from Traditional Owner groups such as the Yindjibarndi and Robe River Kuruma people highlight how water abstraction threatens sacred sites and cultural heritage. Over-extraction of groundwater from aquifers, particularly at Bungaroo and Millstream, risks permanently damaging Indigenous lands, which have already suffered from past industrial encroachments—including Rio Tinto’s infamous destruction of Juukan Gorge in 2020.

Then there’s climate change. WA’s north has faced five consecutive years of below-average rainfall, leading to reduced groundwater recharge at Millstream and Bungaroo borefields. Harding Dam, a key surface water source, has seen declining runoff, exacerbating long-term supply challenges. This pattern mirrors the broader water crisis in southern WA, where declining rainfall has already led Perth to rely on desalination plants for nearly half of its drinking water.

A Closer Look at the New Desalination Strategy

Rio Tinto’s commitment to developing a seawater desalination plant at Dampier’s Parker Point operations is a major step in reducing reliance on groundwater. Here’s how the plan is expected to unfold:

Stage 1 (Operational by 2026): Producing 4 gigalitres (GL) of desalinated water per year, significantly reducing groundwater extraction from Bungaroo borefield.
Stage 2 (Proposed for 2027): A potential second expansion adding another 4GL per year, pending feasibility assessments with Water Corporation.
Long-Term Solution (By 2030): The Water Corporation plans to construct a large-scale desalination plant, allowing Rio Tinto to phase out groundwater abstraction entirely.
Together, these projects will help ensure a climate-independent water supply for the region while mitigating environmental damage from aquifer overuse.

How This Compares to Past WA Water Projects

WA has turned to desalination before as a way to combat drying climates. Perth’s first desalination plant, the Perth Seawater Desalination Plant, was built in 2006 and now supplies 15% of the city’s water needs. The Southern Seawater Desalination Plant, operational since 2011, provides around 100GL of drinking water per year, accounting for roughly 20% of the city’s supply. Combined, desalination has allowed Perth to maintain water security despite a decline of over 20% in long-term average rainfall since the 1970s.

In the mining industry, desalination has also proven essential. Alcoa’s Wagerup refinery built a brackish water desalination plant in 2009 to reduce reliance on the Yarragadee Aquifer. Similarly, in Chile—one of the only other major iron ore producers on par with WA—mining companies have shifted toward desalination to meet their water needs while reducing ecological damage to aquifers.

However, large-scale desalination is not without its challenges.

The Challenges and Concerns

Cost and Energy Use
Desalination is expensive. Producing potable water from seawater requires about 4 kWh per kilolitre—roughly four times the energy cost of groundwater pumping. With rising electricity prices, ensuring these plants operate on renewable energy will be critical to avoiding emissions increases.

Environmental Risks
Brine disposal is one of the most significant environmental concerns. Desalination plants extract freshwater while discharging concentrated salt back into the ocean, potentially disrupting marine ecosystems. While modern desalination facilities use diffusers to minimize impact, sustained increases in brine discharge in sensitive marine environments like the Dampier Archipelago could create long-term ecological risks.

Indigenous Consultation and Cultural Protection
While reducing groundwater extraction is a positive step, many Traditional Owner groups remain skeptical of mining companies’ environmental commitments. The destruction of Juukan Gorge by Rio Tinto in 2020 severely damaged the company’s relationship with Indigenous communities. Although the company has since committed to stronger cultural heritage protections, skepticism remains. There is currently no explicit funding for Indigenous-led water monitoring programs, raising concerns that Traditional Owners may still be left out of long-term water governance discussions.

Timelines and Feasibility Risks
Large-scale infrastructure projects often face delays and cost overruns. While Stage 1 of the Dampier desalination plant is planned for 2026, its completion depends on Rio Tinto’s Parker Point upgrades, and Stage 2 remains in a feasibility phase. WA has seen major water projects face setbacks before, including delays in the expansion of the Southern Seawater Desalination Plant.

What’s Next for WA’s Water Security?

Beyond the Pilbara, WA’s reliance on desalination is set to grow. With climate change continuing to drive long-term drying trends, future water strategies will likely include:

More desalination plants: The Water Corporation has proposed a third desalination plant for Perth near Alkimos, expected to be operational by 2028.
Better water recycling: Expanding Perth’s Groundwater Replenishment Scheme, which injects treated wastewater back into underground aquifers, could further reduce reliance on desalination.
Renewable-powered desalination: As WA expands its renewable energy grid, integrating solar and wind power into desalination operations will be essential to maintaining cost-effectiveness and sustainability.
For the people of Perth and WA, this means water security will remain a critical political and economic issue in the coming decades. As mining, agriculture, and urban development continue to compete for limited resources, proactive investment in climate-independent water solutions will determine the state’s long-term resilience.

Final Thoughts

The Cook Government’s agreement with Rio Tinto represents a necessary shift in WA’s approach to industrial water use. By reducing reliance on groundwater and investing in desalination, the Pilbara’s industries and communities are positioning themselves for long-term sustainability. However, the success of this initiative will depend on transparent environmental protections, renewable energy integration, and meaningful engagement with Traditional Owners.

With WA’s future water challenges only growing, this project could set the standard for how the state manages its most precious resource in the years ahead.

Western Australia Boosts Regional Arts with $500,000 Investment: CinefestOZ and RASI Organisations to Benefit

In a bold move to invigorate Western Australia’s regional arts scene, the State Government has unveiled a $500,000 funding boost, aiming to counter rising costs and breathe new life into cultural activities beyond Perth’s borders. This financial injection underscores the government’s commitment to fostering cultural development in regional areas, where arts organisations play a crucial role in community cohesion and economic vitality.

The funding will be divided between the CinefestOZ film festival, which will receive $170,750, and 17 Regional Arts Sector Investment (RASI) organisations, which will share over $300,000. These organisations, supported through the Regional Arts and Cultural Investment Program (RACIP), are pivotal in maintaining the vibrancy and connectivity of regional communities.

CinefestOZ, a cornerstone of the South West’s cultural calendar since 2008, is more than just a film festival. It is a catalyst for regional screen culture, drawing local, national, and international attention to Western Australia’s cinematic talents and stunning landscapes. The additional funding is expected to enhance the festival’s capacity to attract talent and audiences, further contributing to the local economy through tourism and industry development.

The RASI organisations, selected through a competitive grant process in 2024, are the unsung heroes of regional arts. They deliver diverse and challenging cultural experiences, employing professional regional artists and arts workers who are integral to the cultural and economic fabric of their communities. This funding boost is a testament to their role as local champions of the arts.

Historically, Western Australia has demonstrated a strong commitment to regional arts, with RACIP being a collaborative effort between the Department of Local Government, Sport and Cultural Industries and the Department of Primary Industries and Regional Development. This interdepartmental approach highlights the recognition of arts as a vital component of both cultural and economic regional development.

The potential impacts of this funding are manifold. Economically, it could lead to more employment opportunities for regional artists, while culturally, it promises a richer and more diverse array of offerings. For events like CinefestOZ, improved funding could attract more visitors, boosting regional tourism. Additionally, the industry program associated with CinefestOZ could lead to significant upskilling within the regional film industry.

However, challenges remain. The sustainability of regional arts programs is a perennial concern, and while this one-off boost is welcome, long-term strategies are needed. Equitable distribution of funds across the 17 RASI organisations will also be crucial to ensure that all regions benefit. Furthermore, measuring the tangible benefits of this funding for regional communities will be essential to justify future investments.

This funding boost is a significant investment in Western Australia’s regional cultural landscape, aligning with broader national trends of supporting decentralised arts activities. Its long-term impact will depend on effective utilisation and whether it can catalyse sustainable growth in regional arts sectors.