MRO & Manufacturing
UAMCO Partners with Ramco Systems to Enhance Aviation Engine Maintenance
UAMCO adopts Ramco’s AI-driven aviation software to optimize CFM LEAP engine maintenance and improve MRO operations globally.
The aviation maintenance, repair, and overhaul (MRO) industry is undergoing a period of profound change, marked by the recent announcement that United Aerospace Maintenance Company (UAMCO) Ltd has chosen Ramco Systems to implement a comprehensive aviation software suite across its operations. This partnership, formalized in August 2025, is emblematic of the sector’s push toward digitalization and operational efficiency, especially as providers grapple with capacity constraints, extended turnaround times, and rising demand for advanced engine services. UAMCO’s adoption of Ramco’s integrated platform is designed to optimize maintenance for CFM International LEAP engines, positioning the company at the forefront of technological innovation within the global MRO landscape.
As airlines contend with increasingly complex engine systems and regulatory requirements, the need for digital transformation in MRO has never been more acute. The aviation MRO software market is projected to reach $11.68 billion by 2032, reflecting a broader industry trend toward leveraging integrated solutions for engineering, maintenance planning, supply chain management, and compliance. UAMCO’s move not only addresses these operational imperatives but also signals a strategic response to market pressures, setting a precedent for the adoption of next-generation technology in the engine maintenance sector.
This article examines the background of both UAMCO and Ramco Systems, the specifics of their partnerships, the technical underpinnings of the software implementation, and the broader implications for the aviation MRO industry. Drawing on industry data and expert commentary, we break down the facts, challenges, and opportunities shaping this transformation.
United Aerospace Maintenance Company (UAMCO) is a relatively new entrant in the global engine MRO space, established in 2022 in Larnaca, Cyprus. Founded by John Savvides, an industry veteran with over three decades of experience at airlines such as British Airways and Monarch, UAMCO has quickly positioned itself as a specialist in CFM International LEAP engine maintenance. The company’s focus on the LEAP-1A and LEAP-1B engines, powering Airbus A320neo and Boeing 737 MAX aircraft, respectively, reflects a deliberate strategy to address the growing maintenance needs of these next-generation engines, which have demonstrated higher than anticipated maintenance requirements and shorter on-wing times.
Cyprus offers UAMCO strategic advantages, providing proximity to major European, Middle Eastern, and African carriers, and benefiting from a favorable regulatory environment. UAMCO’s facility in Larnaca’s Free Trade Zone was inaugurated in January 2025, beginning operations with its first LEAP-1A engine from Flynas and an initial annual capacity of 12 engines. The company plans to scale this to 36–48 engines within two years, supported by investments in advanced testing and overhaul equipment. UAMCO has also secured critical regulatory approvals from EASA and Cyprus authorities, authorizing it to perform both line and overhaul maintenance.
UAMCO’s market position is reinforced by a strategic partnership with GE Aerospace, formalized through an offload agreement in November 2024. This arrangement integrates UAMCO into the CFM LEAP maintenance network, granting access to GE’s support infrastructure and enabling the company to deliver specialized services such as Reverse Bleed System (RBS) installations. These capabilities, combined with targeted investments in equipment and personnel, position UAMCO as a key player in the evolving LEAP engine MRO ecosystem.
Ramco Systems, based in Chennai, India, is a global enterprise software provider with a strong aviation focus. Its Aviation Software platform supports over 4,000 aircraft for more than 90 organizations worldwide, including airlines, MROs, defense agencies, and helicopter operators. With over 24,000 active users and a fiscal year 2025 revenue of $70.43 million, Ramco has established itself as a leader in aviation digital solutions, despite posting a net loss for the year. The company’s deep domain expertise and robust product suite make it a logical partner for UAMCO’s digital transformation ambitions.
The collaboration between UAMCO and Ramco Systems is designed to deliver a holistic digital transformation of UAMCO’s engine maintenance operations. Facilitated by aviation IT consultancy AiAppsData, the partnership centers on the deployment of Ramco’s Aviation Software platform, which integrates engineering, CAMO, maintenance planning, supply chain, sales, HR, safety, quality, and finance modules. This end-to-end solution will allow UAMCO to manage engine maintenance at the component level, track costs and revenues, and provide real-time transparency throughout the maintenance lifecycle. The engineering and CAMO module ensures regulatory compliance and airworthiness management, while the maintenance planning module optimizes workflows, resource allocation, and task sequencing to minimize turnaround times. Real-time supply chain management addresses one of the sector’s most persistent challenges: parts availability and inventory optimization. Commercial and sales functions are unified through the MRO and parts sales module, enabling dynamic pricing and revenue management.
Employee management and safety modules support workforce planning and regulatory adherence, while finance integration ensures accurate cost tracking and reporting. Mobile applications and customer portals further enhance operational efficiency and client engagement, allowing technicians to update tasks on the shop floor and customers to monitor project status in real time.
“In selecting Ramco Systems as our technology partner, we were guided by a clear vision: to enable smarter operations and faster decision-making through the right solution.”, John Savvides, CEO, UAMCO
Ramco’s Aviation Software 6.0, released in September 2024, introduces significant advances in artificial intelligence, machine learning, and automation. Predictive maintenance analytics and intelligent decision support enable UAMCO to shift from reactive to proactive maintenance strategies, identifying potential issues before they impact operations. Natural language processing accelerates the interpretation of airworthiness directives and service bulletins, reportedly reducing processing times by up to 40% compared to manual methods.
The platform’s specialized Engine MRO solution supports detailed tracking of engine components, maintenance histories, and performance trends. Piece-part level tracking ensures regulatory compliance and cost control, while automation frameworks streamline procurement and billing processes. Integration capabilities eliminate data silos, allowing seamless information flow across departments.
Ramco’s architecture supports both cloud and on-premises deployment, offering scalability and global accessibility. The mobile-first design ensures that technicians and managers can access critical functionality from anywhere, supporting the distributed nature of modern MRO operations. These technical enhancements are particularly relevant as UAMCO seeks to expand its operations and handle increasing volumes of LEAP engine maintenance.
“The latest version of Ramco Aviation Software 6.0 is a significant milestone in our journey of continuous innovation and commitment to excellence. Along with the advanced capabilities, our specialized Engine MRO solution is a key part of this release, addressing the critical challenges of engine maintenance.”, Sundar Subramanian, CEO, Ramco Systems
The aviation MRO software market is experiencing strong growth, with the global market valued at $7.70 billion in 2024 and projected to reach $11.68 billion by 2032. This expansion is driven by rising air travel demand, aging fleets, and the increasing complexity of modern aircraft systems. North America leads the market, but growth is evident worldwide as airlines and MROs invest in digital solutions to enhance efficiency and regulatory compliance.
The LEAP engine family has emerged as a focal point for specialized MRO services. With over 3,700 LEAP-powered aircraft in service and a backlog exceeding 10,000 engines, maintenance demand for these powerplants is expected to surge through the end of the decade. Airlines are facing extended turnaround times, up 35% for legacy engines and more than 150% for new-generation engines compared to pre-pandemic levels, creating operational and financial pressures that only sophisticated technology solutions can address.
Ramco’s partnership with UAMCO aligns with these market dynamics, providing the digital infrastructure needed to manage increased maintenance volumes and complexity. Financially, while Ramco reported a net loss in fiscal 2025, its revenue growth and improving gross profit margins suggest operational improvements and strong market demand for its solutions. The broader MRO market, projected to reach $134.07 billion by 2030, offers significant opportunities for providers that can deliver efficiency and reliability through technology. “This partnership is a testament to the growing trust that leading MRO service providers are placing in Ramco Aviation Software to transform their engine maintenance operations.”, Manoj Kumar Singh, Chief Customer Officer, Ramco Systems
The aviation MRO sector faces several challenges, including deferred maintenance from the pandemic, higher-than-expected maintenance needs for new engines, and supply chain disruptions. These factors have created capacity constraints that are likely to persist for years, particularly for LEAP engines, which require more frequent shop visits due to their advanced but demanding design.
Supply chain limitations have become a critical bottleneck, with delays in parts delivery and inventory management complicating maintenance schedules. Many providers must choose between ordering parts only when needed, risking delays, or maintaining costly excess inventory. Advanced software solutions with predictive analytics and inventory optimization can help address these issues, offering a competitive edge to those who invest in them.
The integration of AI, machine learning, and data analytics is poised to revolutionize MRO operations. Modern aircraft generate vast amounts of data, but only a fraction is currently utilized for maintenance decision-making. By harnessing this data, MROs can move toward predictive maintenance, reducing costs and turnaround times while improving reliability and compliance.
“Aircraft engine MRO has become a choke point for commercial aviation, with capacity shortages likely to worsen through the end of the decade. MRO providers who invest in advanced technology solutions today will be best positioned to capture larger market share and drive long-term growth.”, Bain & Company analysis
The UAMCO–Ramco partnership marks a significant milestone in the digital transformation of aviation engine maintenance. By implementing a comprehensive, AI-powered software suite, UAMCO is addressing not only the immediate operational challenges of LEAP engine maintenance but also positioning itself for long-term success in an increasingly competitive and complex market.
As the aviation MRO sector continues to evolve, digitalization and data-driven decision-making will become essential for operational excellence. UAMCO’s example demonstrates how targeted technology investments can yield strategic advantages, setting a standard for other providers and accelerating the industry’s overall transformation. The next decade will likely see further adoption of integrated software platforms, reshaping how maintenance is planned, executed, and managed worldwide.
What is the significance of UAMCO’s partnership with Ramco Systems? What are the main technical features of Ramco Aviation Software? How does this partnership reflect broader trends in the aviation MRO industry? What challenges does the aviation MRO industry currently face? What is the expected growth of the aviation MRO software market?
UAMCO Selects Ramco Aviation Software: Strategic Partnership Transforms Engine Maintenance Operations in Global MRO Market
Company Background and Strategic Positioning
Strategic Partnership and Implementation Approach
Technical Specifications and Advanced Capabilities
Market Context and Industry Dynamics
Challenges and Opportunities in Aviation MRO
Conclusion
FAQ
UAMCO’s partnership with Ramco Systems represents a strategic investment in digital transformation, enabling more efficient, transparent, and scalable engine maintenance operations, particularly for CFM LEAP engines.
The platform includes AI-powered predictive maintenance, real-time inventory and workflow management, mobile applications for technicians, customer portals, and comprehensive modules for engineering, CAMO, finance, and compliance.
The move aligns with industry-wide shifts toward digitalization, automation, and data-driven operations, which are necessary to address capacity constraints, regulatory requirements, and the growing complexity of modern aircraft engines.
Key challenges include extended turnaround times, supply chain disruptions, increased maintenance demand for new-generation engines, and the need for better data integration and predictive analytics.
The market is projected to grow from $7.70 billion in 2024 to $11.68 billion by 2032, driven by rising demand for digital solutions and the increasing complexity of aircraft maintenance.
Sources
Photo Credit: UAMCO
MRO & Manufacturing
Airbus Seeks Damages from Pratt & Whitney Over Engine Delays
Airbus has lowered 2026 delivery targets and delayed A320neo production due to Pratt & Whitney’s delayed engine shipments following a 2023 recall.
This article summarizes reporting by Reuters
Airbus is escalating a months-long supply chain dispute with U.S. engine manufacturer Pratt & Whitney, pursuing financial damages over delayed engine shipments. According to reporting by Reuters, the European planemaker has officially triggered a claim against the RTX Corporation subsidiary, highlighting a severe bottleneck in commercial aerospace manufacturing.
The conflict centers on the allocation of Pratt & Whitney’s Geared Turbofan (GTF) engines. Airbus alleges that the supplier is prioritizing maintenance, repair, and overhaul (MRO) shops to fix grounded aircraft rather than delivering new engines to Airbus assembly lines. This shortage has directly impacted Airbus’s bottom line and production capabilities.
Consequently, Airbus has been forced to cut its 2026 aircraft delivery forecasts and delay its production ramp-up goals for the best-selling A320neo family. The situation underscores a broader industry tension between aircraft manufacturers demanding parts for new planes and airlines demanding parts to keep their existing fleets operational.
The current supply bottleneck traces back to a major manufacturing defect discovered in 2023. Pratt & Whitney had to issue a recall for certain PW1000G engine models due to contaminated powdered metal used to produce specific engine parts. This recall and the subsequent mandatory inspections left hundreds of aircraft grounded globally, creating a massive backlog for MRO services.
The aerospace industry is still recovering from post-pandemic supply chain disruptions, making it difficult for suppliers to rapidly scale up the production of replacement parts and new engines simultaneously. Pratt & Whitney’s GTF engines are critical to Airbus operations, powering approximately 40 percent of the highly popular A320neo family of narrowbody jets and exclusively powering the Airbus A220.
The dispute has evolved into a “tug of war” over scarce engine supplies. Airbus claims that Pratt & Whitney over-promised on engine shipments for 2026 and is now backtracking on its contractual commitments by diverting engines and spare parts away from new jets.
Conversely, airlines have largely sided with the engine maker’s prioritization of repairs. According to the provided research, Lufthansa’s CEO publicly defended Pratt & Whitney, arguing that keeping existing carrier fleets operational should take priority over the production of new aircraft. Engine manufacturers also typically generate the majority of their long-term revenue from aftermarket repairs and maintenance, adding financial weight to the MRO prioritization. The engine shortage has caused tangible disruptions to Airbus’s manufacturing and financial targets. Due to the lack of engines, Airbus was forced to reduce its 2026 commercial aircraft delivery target to 870 planes. While this is an increase from the 793 planes delivered in 2025, it falls short of the roughly 907 deliveries industry analysts had expected for 2026.
Furthermore, Airbus has delayed its production ramp-up goals. The company had previously aimed to produce 75 A320neo family jets per month by 2026 or early 2027. Because of the engine shortages, Airbus now expects to reach a rate of 70 to 75 aircraft per month by the end of 2027, stabilizing at 75 thereafter.
Tensions boiled over publicly during Airbus’s fiscal year 2025 earnings presentation on February 19, 2026. During the call, Airbus CEO Guillaume Faury publicly criticized the supplier, warning that Airbus was ready to enforce its contractual rights.
“failure to commit to the number of engines ordered by Airbus is negatively impacting this year’s guidance and the ramp-up trajectory”
, Airbus CEO Guillaume Faury, speaking during the February 2026 earnings call.
On March 19, 2026, Reuters reported that Airbus officially triggered a claim seeking unspecified financial damages from Pratt & Whitney. While the exact venue for the dispute has not been publicly confirmed, international commercial claims in the aerospace sector are typically handled through confidential arbitration proceedings.
We observe that this escalation marks a significant hardening in one of aviation’s most critical supplier relationships. The dynamic between planemakers, engine suppliers, and airlines is highly fragile in a capacity-constrained market. Late engine deliveries result in completed airframes waiting on the tarmac without engines, often referred to in the industry as “gliders.” This ties up the manufacturer’s cash flow and delays revenue recognition, as airlines pay the bulk of an aircraft’s purchase price upon final delivery.
If Airbus is successful in securing compensation, it could set a major legal precedent. Other aircraft manufacturers may be emboldened to push the financial costs of supply chain disruptions back onto their suppliers, which would raise legal and warranty risks across the entire aerospace sector. We will continue to monitor RTX Corporation’s upcoming financial disclosures to see if they provision funds for potential legal payouts or arbitration settlements related to this dispute.
Airbus alleges that Pratt & Whitney is failing to meet its contractual engine delivery commitments for 2026, prioritizing repair shops for grounded aircraft over supplying engines for new Airbus assembly lines. Airbus has lowered its 2026 delivery guidance to 870 commercial aircraft and delayed its goal of producing 75 A320neo family jets per month until the end of 2027.
In 2023, Pratt & Whitney issued a recall for certain PW1000G engine models due to contaminated powdered metal used in specific parts. This grounded hundreds of aircraft and created a massive backlog for maintenance and repairs.
Sources: Reuters
The Root of the Engine Dispute
The 2023 Recall and Supply Chain Strain
Competing Priorities: New Builds vs. Repairs
Financial and Operational Impacts on Airbus
Lowered Guidance and Delayed Ramp-Up
Escalation to Damages
AirPro News analysis
Frequently Asked Questions
Why is Airbus seeking damages from Pratt & Whitney?
How has the engine shortage affected Airbus’s production?
What caused the initial Pratt & Whitney engine shortage?
Photo Credit: Airbus
MRO & Manufacturing
Ryanair Expands Prestwick Maintenance Facility with £40M Investment
Ryanair invests £40 million to expand its Prestwick maintenance facility, creating 450 skilled jobs and boosting Scotland’s aerospace sector.
This article is based on an official press release from Ryanair.
Ryanair has announced a £40 million expansion of its maintenance facility at Prestwick Airport, a move that will significantly boost the local economy and support the airline’s long-term growth strategy. According to a company press release, the project will create 450 new highly skilled engineering and mechanic jobs, including 60 apprenticeship roles.
The expansion involves the construction of a new 11,938-square-meter, four-bay heavy maintenance hangar alongside additional component workshops. This development will increase Ryanair’s existing Prestwick operations from six to ten bays, establishing the site as the Airlines largest heavy maintenance facility.
The investment is backed by substantial public sector funding from both the UK and Scottish governments, highlighting a collaborative effort to position Ayrshire as a leading aerospace hub. We anticipate this development will have a lasting impact on the region’s aviation infrastructure.
The £40 million investment is a critical component of Ryanair’s broader strategy to scale its operations over the next decade. The airline aims to grow its fleet to 800 Commercial-Aircraft and serve 300 million passengers by 2034. To support this ambitious expansion, robust maintenance infrastructure is essential, and the company has identified Prestwick as a primary hub for these operations.
This latest project builds upon Ryanair’s recent £5 million investment in its Prestwick Training Academy, which opened in October 2024. According to the press release, that facility is already delivering 500 jobs and providing industry-leading Training for engineers, mechanics, and support staff to service the growing fleet.
“This new state-of-the-art, 4-bay hangar and component workshops will make Prestwick our largest heavy maintenance facility, and a key part of how we will maintain and support our fleet,” stated Ryanair CEO Eddie Wilson in the press release.
The expansion at Prestwick Airport is not solely a private venture; it is heavily supported by public funds aimed at regional economic development. The UK Government is contributing £4.9 million toward enabling infrastructure for the hangar. This funding is part of a broader £32 million allocation for the Prestwick Aerospace Cluster, designed to drive economic renewal in Scotland.
Additionally, Scottish Enterprise has approved an £11.6 million funding package for the expansion. The agency will also deliver a further £1.52 million for corresponding infrastructure improvements in collaboration with the Scottish Government. Local officials, including representatives from South Ayrshire Council and Glasgow Prestwick Airport, praised the long-term land lease agreement that made the expansion possible. “I am delighted that Scottish Government investment will support the creation of 450 skilled jobs at Prestwick, which will have a major economic impact in Ayrshire and beyond,” said First Minister John Swinney.
We view Ryanair’s decision to expand its Prestwick facility as a clear indicator of a growing industry trend where major airlines are vertically integrating their MRO operations to ensure fleet reliability. By investing heavily in local training academies and maintenance hangars, Ryanair is actively insulating itself against global shortages of skilled aviation mechanics.
Furthermore, the substantial public funding package, totaling over £18 million between the UK Government and Scottish Enterprise, demonstrates the high value regional governments place on aerospace clusters. Securing long-term, high-skilled employment in Ayrshire provides a strong return on Investments for these public entities while cementing Prestwick’s status as a critical aviation hub for decades to come.
What is the total investment in the Prestwick expansion? How many jobs will the new facility create? When did Ryanair open its Prestwick Training Academy?
Expanding Maintenance Capabilities for Future Growth
Public Sector Support and Economic Impact
AirPro News analysis
Frequently Asked Questions (FAQ)
Ryanair is investing £40 million, supported by additional public funding from the UK and Scottish governments.
The expansion will create 450 new highly skilled engineering and mechanic jobs, which includes 60 apprenticeship roles. Overall, the investment supports over 1,200 jobs in the region.
The Prestwick Training Academy was opened in October 2024 following a £5 million investment.
Sources
Photo Credit: Ryanair
MRO & Manufacturing
Moisture Absorption Drives Carbon Fibre Degradation in Aircraft
Monash and RMIT research finds moisture absorption is the key factor in carbon fibre degradation, validating accelerated ageing tests for aircraft materials.
This article is based on an official press release from Monash University and RMIT.
Modern commercial aviation has increasingly turned to carbon fibre reinforced polymers (CFRP) to build lighter, more fuel-efficient Commercial-Aircraft. While these advanced composites are celebrated for their immense strength and resistance to traditional rust, they possess a hidden vulnerability: the slow absorption of environmental moisture during service. According to a recent press release detailing joint research from Monash University and RMIT University, engineers have definitively identified moisture absorption as the most critical factor in how these aerospace materials degrade over time.
The study, published in February 2026 in the journal Composites Part A: Applied Science and Manufacturing, resolves a long-standing debate within the aerospace engineering community. Historically, industry experts have questioned whether high temperatures cause unique types of structural damage to composite materials, or if heat simply accelerates the natural aging process. The new findings confirm that the total volume of moisture absorbed by the material dictates its degradation, overriding the specific temperature or humidity levels present during exposure.
Carbon fibre reinforced polymers are favored in modern Manufacturing because they replace heavier traditional metals like aluminum, offering exceptional durability without the risk of conventional corrosion. However, as noted in the research report, these materials are susceptible to “hygrothermal aging”, a process where prolonged exposure to heat and environmental moisture causes the material to slowly weaken from the inside out.
Utilizing advanced imaging techniques, the research team observed the exact nature of this internal degradation. As the composite materials aged, they developed tiny voids and microscopic cracks. Furthermore, the absorbed moisture caused “interfacial debonding,” which is a weakening of the critical chemical bond between the carbon fibres and the surrounding polymer matrix.
The official press release highlights that the internal geometric arrangement of the carbon fibres plays a massive role in environmental resistance. The researchers found that certain fibre layouts retain their structural integrity significantly better than others when exposed to moisture, making some designs inherently more sensitive to moisture-related degradation.
To ensure aircraft components will remain safe and functional for decades, aerospace engineers rely on “accelerated ageing” tests. These tests expose materials to extreme environmental conditions to simulate years of wear in a highly compressed timeframe. The Monash and RMIT study provides crucial validation for these industry-standard testing methods.
“What we found is that it’s not the exact ageing temperature or humidity that matters most, it’s how much moisture the material ultimately absorbs,” said Dr. Katherine Grigoriou, a researcher and lecturer at the Monash Department of Mechanical and Aerospace Engineering.
Dr. Grigoriou further explained in the release that understanding moisture buildup allows engineers to reliably predict long-term performance. “Our results show that accelerated ageing methods can still provide reliable predictions of long-term performance, as long as the moisture content in the material is properly understood and controlled,” Dr. Grigoriou added.
The implications of this research extend directly to airline operations and aircraft manufacturing. By establishing moisture absorption as the primary metric for composite degradation, Airlines can develop highly accurate predictive models for material aging. According to the research team, these insights will help engineers design more durable composite structures, improve maintenance strategies, and increase overall confidence in the long-term safety of aircraft components.
At AirPro News, we view these findings as a critical stepping stone for the next generation of aircraft design. As the aviation industry continues its aggressive pivot away from metal toward lightweight composites to save fuel and reduce carbon emissions, understanding the exact environmental limits of these materials is paramount. The confirmation that accelerated ageing tests remain valid, provided moisture is tracked, should offer a sigh of relief to regulatory bodies and Manufacturers alike. Furthermore, the revelation that specific fibre orientations can mitigate moisture damage provides manufacturers with an immediate, actionable pathway to design inherently safer and longer-lasting airframes. We anticipate that future aircraft maintenance schedules will increasingly incorporate advanced moisture-tracking diagnostics to ensure passenger safety over the multi-decade lifespan of commercial jets.
Hygrothermal aging refers to the degradation of materials, particularly composites, caused by prolonged exposure to a combination of heat and environmental moisture. In carbon fibre composites, this can lead to the weakening of the bond between the fibres and the polymer resin.
Carbon fibre reinforced polymers (CFRP) are exceptionally lightweight, extremely strong, and highly resistant to traditional rust and corrosion. Using these materials instead of heavier metals like aluminum helps aircraft burn less fuel and reduce emissions.
According to the recent study by Monash University and RMIT, it is not the exact temperature or humidity that matters most, but rather the total amount of moisture the material ultimately absorbs. Heat primarily serves to accelerate this moisture absorption process.
Sources:
Moisture Absorption Identified as Primary Driver of Carbon Fibre Degradation in Aircraft
The Mechanics of Hygrothermal Aging
Microscopic Damage and Fibre Orientation
Validating Accelerated Ageing Tests
Industry Implications for MRO
AirPro News analysis
Frequently Asked Questions (FAQ)
What is hygrothermal aging?
Why do modern aircraft use carbon fibre composites?
Does high temperature directly damage carbon fibre in aircraft?
Monash University and RMIT Press Release via Medianet
Photo Credit: Monash University
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