Paul Kerby

The Q1 2025 Market Report is now live! ⚡ The renewable energy landscape in Australia is evolving rapidly, and the latest report reveals critical trends and challenges you need to know. Don’t wait until opportunities pass you by. Dive into the full report now to navigate the challenges and leverage the growth in the renewable energy landscape! #RenewableEnergy #MarketInsights #Vinova

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Hadean Energy is trialling its electrolyser technology at a CSIRO testing facility, which could produce #greenhydrogen using up to 30 per cent less #electricity than conventional #electrolysers. The tubular solid oxide electrolysis technology can also be used to efficiently produce #syngas for #efuels. Its simple tubular design and proprietary catalyst is expected to lower #manufacturing and #maintenance costs.  Hadean Energy CEO, Chris Rowland, said #testing has proceeded smoothly, with great support from the CSIRO staff. “Successful completion of our #trial will help us progress to commercial scale electrolyser production and make a vital contribution to #decarbonising hard-to-abate industries." The long-term durability and performance of Hadean Energy’s electrolyser module is being tested over several months at CSIRO’s Hydrogen Technology Demonstration Facility (HTDF), which provides the #infrastructure for #hydrogen technologies to be tested and demonstrated by innovators in industry and research. CSIRO Hydrogen Industry Mission Deputy Leader, Karen Kozielski, said the facility is particularly useful for #researchers moving their #technology from benchtop scale to pilot and commercially relevant scale, when #safety is very important. “The HTDF also gives innovators a secure and trusted place to show people their technology in action," Ms Kozielski said.

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Fortescue is currently constructing a Proton Exchange Membrane (PEM) electrolyser manufacturing facility in Gladstone, Queensland, marking a major step forward in Australia's hydrogen industry. The facility, part of Fortescue's larger Green Energy Manufacturing Centre, will produce over 2 gigawatts of PEM electrolyser stacks annually, enough to generate more than 200,000 tonnes of green hydrogen per year. This project is key to Australia's green hydrogen ambitions, and the federal government has supported Fortescue with AU$44 million through the Modern Manufacturing Initiative, alongside Queensland's infrastructure contributions like road networks, power supply, and land allocation. Fortescue’s leadership, headed by Executive Chairman Dr. Andrew Forrest, has emphasized the importance of both manufacturing electrolysers locally and continuously advancing hydrogen technologies. The collaboration between government and industry has been crucial in fast-tracking approvals and infrastructure development, with Queensland establishing itself as a global leader in renewable energy manufacturing. Australian universities are also playing a vital role by supplying the skilled workforce needed to operate these advanced manufacturing facilities. #APACHydrogen2024 #DFAT #SARIC #UQID #greenhydrogen #electrolysers #climatesolutions #cleantech #renewableenergy

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Hydrovoltaic generation using seawater might be a good baseload component for the electricity generation mix here in Aotearoa, accelerating transition. Purely speculatively, I also wonder whether it could be used to improve the economics of effluent treatment (using fluids other than seawater in that case).

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The energy crisis continues to challenge New Zealand industries, with power companies facing criticism for inadequate planning (https://lnkd.in/ggniHFf2) Addressing such technical challenges requires innovative R&D strategies. Callaghan Innovation's R&D solutions can help your business navigate these complexities and emerge stronger. https://lnkd.in/gXZaYRmr #EnergyCrisis #Innovation #ResearchAndDevelopment #NewZealandIndustries Callaghan Innovation

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Local #Ammonia Production: The Ideal Early Adopter for Green #Hydrogen Exciting developments are underway in Australia's #energy landscape with the government's ambitious Future Made in Australia budget measures. With more than $15 billion earmarked to support green hydrogen initiatives, the spotlight is on industries primed for transformation. As highlighted in a new briefing note by Amandine Denis-Ryan, CEO of IEEFA Australia, and Cameron Butler, Guest Contributor: 🔹 Strategic Alignment: Ammonia production stands poised to leverage government incentives, potentially achieving cost parity with traditional #gas methods by the early 2030s. This shift promises significant economic and environmental benefits. 🔹 Immediate Impact: By transitioning a portion of ammonia production to green hydrogen, we can swiftly generate substantial demand. An imminent project in Western Australia offers the potential to showcase large-scale green ammonia production. 🔹 Sector Integration: Introducing progressive green hydrogen uptake for mining explosives could catalyse broader industry adoption. Such measures would not only propel Australia towards green energy leadership but also mitigate financial impacts through strategic governmental support. The future of green #hydrogen in #Australia is bright, with ammonia production serving as a cornerstone of our sustainable energy strategy. Amandine Denis-Ryan || CEO, IEEFA Australia Cameron Butler || Guest Contributor Download the briefing note ⬇ https://lnkd.in/e-3PJaxy #GreenHydrogen #EnergyInnovation #AmmoniaProduction #EnergyTransition

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Victoria's new undersea gas storage project is a response to an increasing need for gas supply security. Despite being one of the world's largest exporters of natural gas, Australia faces a dilemma; its domestic gas supply is under pressure, particularly in the southeastern states like Victoria. This is partly because much of the gas produced in Australia is earmarked for export, leaving domestic markets vulnerable to shortages, especially during winter when demand peaks.   The new storage facility will help manage this by storing surplus gas when demand is low and releasing it during periods of high consumption. While Australia doesn’t import gas, local supply issues stem from the focus on exports to lucrative overseas markets. This has created a situation where even though Australia produces ample gas, the domestic market can experience scarcity.   The Victorian government's decision to enhance gas storage capacity aims to mitigate these risks by ensuring more reliable access to gas during critical periods, helping to stabilize the market and protect against potential supply shocks in the future. For insights on the future of gas and daily energy market updates, contact us at [email protected] Full article: https://lnkd.in/gDccR-Yb #gas #energynews #gasstorage #gasmarkets

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Improving LCOE of PV-driven hydrogen via reciprocating engines ◾ A group of scientists at the University of New South Wales in Australia has investigated the technical and economic feasibility of relying on hydrogen-fueled reciprocating engines for using PV-powered hydrogen in both gas-to-power and power-to-gas operations. ◾ The proposed solution was conceived to reduce the levelized cost of energy (LCOE) of hydrogen generation powered by large-scale PV. ◾ In the study “Evaluating the techno-economic feasibility of hydrogen-fuelled reciprocating engines for renewable base-load power generation,” published in Energy Conversion and Management, the research group said the system includes a 180 MW large scale PV facility, a 93 MW proton exchange membrane (PEM) electrolyzer, a 4 MW compressor, and a 29-ton pressurized hydrogen storage unit for power-to-gas conversion, as well as a 10 MW hydrogen-fuelled reciprocating generator based on hydrogen-diesel dual direct-injection (H2DDI) technology for gas-to-power operation. ◾ The power-to-gas storage unit operates with the surplus power provided by the solar farm, while the gas-to-power unit is used to convert the stored hydrogen into electricity when there is limited availability of electricity in the market. ◾ “The produced hydrogen can either be sold to the market and blended into the existing natural gas pipeline or stored for later use when power generation from the PV is insufficient, such as during night time or adverse weather conditions,” the scientists explained. ◾ The researchers specified that diesel is used as both an ignition source and an additional energy source, with the H2DDI technology being able to gauge variable proportions of hydrogen and diesel to produce power based on available fuel reserves. They also explained that a rise in the hydrogen energy fraction was found to result in a higher LCOE. ◾ The techno-economic analysis showed that the proposed system configuration has the potential to achieve an LCOE of $335.52/MWh and minimal CO2 emissions of 78 kg/MWh. For comparison, the current average LCOE of New South Wales is half of this value. The system was also found to enhance sustained grid supply by increasing diesel consumption without a substantial increase in the LCOE. ◾ Despite these initial findings reveal the proposed technology has a long way to go before reaching commercial maturity, the research team is convinced that the adaptability of the system will make it compete with alternative technological approaches. The source: PV Magazine #energyticslimited #energyefficiency #renewableenergy #reciprocatingengine #pvdrivenhydrogen

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🌟 Exciting News Alert! 🌟 Thrilled to share this fantastic article from Australian Trade and Investment Commission (Austrade) showcasing our innovative strides in hydrogen storage technology. It’s a wonderful piece that lays out what we do, why we do it and how much we've already achieved. With a mission to combat 10 million tonnes of CO2 emissions annually by 2030, Rux Energy is revolutionising the energy transition landscape. One gram of Rux's nanomaterial boasts a surface area equivalent to a football field, acting as a sponge to efficiently adsorb hydrogen without altering its chemical composition. As CEO Dr Jehan Kanga aptly puts it, "It's like making the tanks bigger on the inside." Our patented nanomaterial technology is a game-changer, addressing the critical challenge of hydrogen storage. By leveraging highly porous nanomaterials, Rux achieves storage densities akin to liquid hydrogen, but at safer, more manageable temperatures and pressures. This translates to enhanced safety, cost-effectiveness, and reduced energy losses. The interest is burgeoning, especially in the transport and shipping sectors. Rux is spearheading industry trials across the globe, with projects underway in the UK, Australia, and plans for Singapore. Our collaboration on the UK SPOHL project underscores the transformative potential of Rux's technology. By demonstrating moveable green hydrogen-powered generators to fuel ships at port, we aim to slash marine diesel usage by a third and port carbon emissions by a whopping 90%. This is just the beginning. Rux envisions broader applications across hard-to-abate sectors like heavy trucking, rail, aviation, and heavy industry. Our commitment to collaboration and "aggressive interoperability" underscores our dedication to accelerating the decarbonisation timeline. Read the full article for more! Much gratitude to Australian Trade and Investment Commission (Austrade) for being on this journey with us as we pioneer solutions that promise a greener, more sustainable future! 🌍💡 #HydrogenStorage #NetZeroManufacturing #CleanTech #Innovation #DeepTech #deeptechstartups #innovationtech #innovationtechnology #advancedmanufacturing #AustralianManufacturing #sovereigncapability #hydrogen #greenhydrogen https://lnkd.in/g8gK-9zc

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Some very interesting insights into carbon capture and storage opportunities in Australia in a report released today by the Chamber of Commerce and Industry WA. The report identifies not only the commercial potential associated with the establishment of a CCS industry in Western Australia but also the very significant impact this would have on decarbonisation in Asia. The need for cross-border CO2 transactions in Asia Pacific - including the emergence of Australia as a storage destination - is a key driver of a major study being undertaken by ANGEA. The  Carbon Certification for Cross-Border CCS Study is developing a whole-of-region framework that will help guide the development of CCS value chains in our region. Learn more about the study: https://bit.ly/3R3Vem3 Access the full CCIWA report: https://bit.ly/4cDLExr #carboncapture #ccs #energytransition #decarbonisation #decarbonization

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Amp Energy plans green hydrogen and ammonia production Amp Energy has finalised commercial agreements for the development of the Cape Hardy Advanced Fuels Precinct incorporating electrolysers to produce green hydrogen, as well as green ammonia and other advanced fuels. The agreements were executed with Iron Road which is developing the Cape Hardy Industrial Port Precinct on the Eyre Peninsula in South Australia into a green products manufacturing and export area. The area is to be supported by a desalination plant for the region being studied by the federal and state governments and copper miners BHP and Oz Minerals which will underpin massive expansions of industry. Now Amp Energy will purchase a 630-hectare parcel of land at Cape Hardy for $15.5 million for the project and has finalised a royalty structure and common user infrastructure agreement with Iron Road. The Cape Hardy Advanced Fuels Precinct will provide production at scale with up to 10 GW of planned electrolyser capacity with an initial stage to bring 1 GW online, as well as an advanced fuels export terminal. #manufacturing #manufacturingnews #hydrogen #renewables Amp Energy Iron Road Ltd https://lnkd.in/et9xKe7R

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Combined Geothermal and Natural Hydrogen Resources Along the Darling Fault: Natural Hydrogen: The presence of natural hydrogen in the Darling Fault region is particularly interesting due to several factors: Geological Structures: The fault’s complex geological structures, including fractures and faults, can act as conduits for hydrogen migration and accumulation. Hydrogen Generation: The interaction between water and iron-rich minerals in mafic and ultramafic rocks can produce hydrogen through serpentinization and other geochemical processes. Detection: Soil gas surveys and geochemical analyses have identified elevated hydrogen levels in the region, suggesting active hydrogen generation. Geothermal Energy: The geothermal potential of the Darling Fault is supported by: Heat Flow: The region exhibits favorable heat flow characteristics, which are essential for geothermal energy extraction. Hydrothermal Systems: The presence of deep aquifers and permeable rock formations can facilitate the circulation of hot fluids, making it possible to harness geothermal energy. Conductivity Anomalies: Geophysical surveys have detected deep conductivity anomalies, indicating the presence of geothermal resources. Both energy sources offer sustainable and environmentally friendly alternatives to traditional fossil fuels. Exploring these resources could significantly contribute to the region’s energy mix and reduce carbon emissions. Source: Copilot AI https://lnkd.in/g24V27-D

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Recently I spoke to The Australian about Licella’s biomass to biofuels technology and how it supports Australia to decarbonise hard to abate sectors, such as aviation. It presents a new and exciting opportunity to unlock vast quantities of biomass residues, that don’t compete with the food industry, to produce SAF. Thanks to an abundance of feedstock, recent Federal budget announcements and an emerging policy landscape, Australia (and Queensland) seem poised to become a global player in the biofuels market. #SAF #biofuels #netzerocarbon https://lnkd.in/g7B_Rs9N

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Listen to Scion's Portfolio Leader for Bioproducts and Packaging - Alec Foster - on this NZ Dairy Exporter podcast -  two different sides of the debate, on what the risks are of introducing GE into our market, and how these risks could be managed and identified. Biotechnology is a key pillar of Scion's impact journey.Biotechnology and biomanufacturing - enabled by modern genetic technologies will create the foundations that allow us to: 📌accelerate new industries and high-paying jobs 📌expand domestic manufacturing 📌create new export marketsand products for export markets 📌help secure critical supply chains for a resilient and competitive future. Interested in more biotech and genetics work that we do?👇 The Scion webpage dedicated to genetic engineering (gene modification) https://lnkd.in/g3cRJV-6 How is Scion leading New Zealand in fermentation technology, using bacteria and yeast to convert industrial waste streams and greenhouse gases into high-value products. https://lnkd.in/ditGChbF https://lnkd.in/gYZQ7yD4 #biotechnology #biotech #cleantechnology #cleantech #biomaterials #fermentation #genetics #manufacturing #sustainability #science #technology #innovation

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“Australian researchers race to smash the #solar efficiency ceiling using “singlet fission”” Rachel Williamson - Jul 31, 2024 “A team of Australian researchers from the University of New South Wales is racing another tam from MIT in the US to boost the efficiency limits of #siliconsolarcells using #quantummechanics .” “#Siliconsolarcellefficiency – the fraction of energy supplied by the sun that can be converted into electricity – is theoretically limited to an “absolute limit” of 29.4 per cent, according to Ned Ekins-Daukes from UNSW’s School of Photovoltaics & Renewable Energy Engineering.” “In the real world, the highest efficiency was set earlier this year by China solar giant LONGi, which demonstrated a 27.3 per cent efficient silicon solar cell.” “Attempts to crack the #siliconceiling have spanned from trying to stablise #perovskites to just adding another side with #bifacialpanels . Another potential solution – and one being pursued by a multi-disciplinary team from the UNSW – is #singletfission .” ““[Singlet fission is] the journey that the energy takes between being created by a #photon and being two separate #energypackets , which are confusingly called #triplets ,” Schmidt says.” “”A #spin is a #quantummechanical property . #Electrons have a spin of a half. If the spins cancel out it’s a #singlet , if they reinforce each other to add to one it’s called a triplet, because it splits into three states if you apply a #magneticfield .”” https://lnkd.in/e3SbPpVq? Source- original post Read all my posts #MariusPreston

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The Smart Energy Council and Zero Carbon Hydrogen Australia are pleased to provide a submission for the Low Carbon Liquid Fuels (LCLF) consultation paper to the Department of Infrastructure, Transport, Regional Development, Communications and the Arts. Our key recommendations: ⛽LCLF-fueled vehicles are vital for sectors where electric and hydrogen vehicles are impractical, while EV and renewable hydrogen solutions remain cost-effective for light transport and passenger vehicles. ⛽ LCLF grants must rely on a Carbon Intensity (CI) assessment framework to ensure effective support. ⛽ Resources for LCLF grants could be reallocated from fossil fuel subsidies to correct market imbalances and reflect the true production costs of fossil fuels from a 'well to tailpipe' perspective. We are also proud to support Anthony Albanese's Future Made in Australia plan, which aims to strengthen Australia's smart energy position. The LCLF industry offers significant opportunities for economic and fuel security, regional job creation, and broader transport sector decarbonisation. Read our full submission here: https://lnkd.in/gUv2X6gt A big thank you to Mike Straughton for his assistance to co-author this submission ✍️ Joanna Kay Catherine Van Der Merwe Scott Hamilton #LowCarbonFuels #SmartEnergy #RenewableEnergy #FutureMadeInAustralia #Decarbonisation

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WA Natural Hydrogen Indications:   Natural hydrogen: indications from onshore Western Australian sedimentary basins   “Numerous natural processes (chemical, biological, radiolytic, mechanical) can generate H2 – questions centre around production rates, volumes, trapping and preservability in geological environments: ·                  Ignitable H2-bearing vents known since antiquity ·                  H2-rich vents at mid-ocean ridges discovered in 1970s ·                  H2sometimes detected during hydrocarbon, water or mineral drilling (but detection equipment rarely onsite) ·                  Recent availability of hand-held detection equipment has led to reports of H2surface seeps world-wide ·                  Accidental discovery of a potentially economic H2 field in Mali encourages active exploration for natural H2 ·                  Legislation permitting H2exploration/production enacted in SA & TAS; amendments to Act in progress in WA   Mechanisms of generation: ·               Abiotic/inorganic chemical reactions –e.g. rock-water interactions involving oxidation of iron (ferrous to ferric iron), including serpentinization and other oxidation of mafic rocks and Banded Iron Formation ·               Radiolysis of water ·               Over maturation of organic matter including hydrocarbons ·               Biogenic processes ·               Mechano-radical processes associated with active faulting ·               Volcanic degassing ·               Primordial hydrogen   Accumulation: ·               Generation greatest in crystalline rocks at depth and moderately high temperatures ·               Reservoirs most likely in overlying sedimentary basins ·               H2 difficult to trap – temporary trapping (baffling) in porous reservoirs in active migration pathways might be economic (e.g. Mali field); fossil accumulations possible if very good seal (e.g. Mt Kitty 1 in NT - ancient salt seal)   Indications of H2 in WA Basins: ·               Boreham et al. (2021 APPEA Journal) report H2 in archived natural gas samples from WA ·               Up to 5% H2 from shallow drilling (6 m) near Gingin gas field (Gole & Butt 1985 AAPG Bull) ·               Unquantified reports of “high hydrogen” from water bores in the south Perth Basin ·               Surface H2 seeps (‘fairy circles’) reported in north Perth Basin (Frery et al., 2021 Internat. J Hydrogen Energy; Frery et al., 2022 APPEA Journal) ·               Unpublished GSWA data provides similar evidence for H2 seeps in the northern Canning and south Perth basins; potential seep in the south Perth Basin showed a weak periodic H2 flux when autonomously monitored for several weeks ·               GSWA search of openfile petroleum well data (mostly well completion reports) indicated 38 wells in state jurisdiction (excluding Barrow Island) for which H2 was detected during drilling or from lab analysis of gas samples. https://lnkd.in/gzvwi3kP

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🌟 Exciting news! It's fantastic to see SAP leveraging Split Miner, Apromore's innovative automated discovery algorithm! 🎉 Split Miner was conceived, built, and rigorously tested through groundbreaking research at the University of Melbourne and the University of Tartu, as part of Adriano Augusto's PhD journey. Proudly supervised by Apromore's co-founders, Marcello La Rosa and Marlon Dumas, this tool is now making waves across the process mining community. To witness industry leaders like #SAP embrace our innovations is a testament to the cutting-edge research and dedication of our team. 🚀 As Adriano Augusto puts it: "Seeing Split Miner adopted by such a major player is incredibly rewarding—it shows that our research is shaping the future of process mining." 👏 Kudos to the entire team, and here's to many more milestones ahead! Read more here: https://hubs.li/Q02P5ZzP0 #Innovation #ProcessMining #Research #Apromore #SAP #UniversityOfMelbourne #UniversityOfTartu #DataScience #AI #MachineLearning

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