Category: Renewable Hydrogen

  • MIL-Evening Report: Swirling nebula of two dying stars revealed in spectacular detail in new Webb telescope image

    Source: The Conversation (Au and NZ) – By Benjamin Pope, Associate Professor, School of Mathematical and Physical Sciences, Macquarie University

    The day before my thesis examination, my friend and radio astronomer Joe Callingham showed me an image we’d been awaiting for five long years – an infrared photo of two dying stars we’d requested from the Very Large Telescope in Chile.

    I gasped – the stars were wreathed in a huge spiral of dust, like a snake eating its own tail.

    The coils of Apep as captured by the European Space Observatory’s Very Large Telescope.
    ESO/Callingham et al., CC BY

    We named it Apep, for the Egyptian serpent god of destruction. Now, our team has finally been lucky to use NASA’s James Webb Space Telescope (JWST) to look at Apep.

    If anything could top the first shock of seeing its beautiful spiral nebula, it’s this breathtaking new image, with the JWST data now analysed in two papers on arXiv.

    Violent star deaths

    Right before they die as supernovae, the universe’s most massive stars violently shed their outer hydrogen layers, leaving their heavy cores exposed.

    These are called Wolf-Rayet stars after their discoverers, who noticed powerful streams of gas blasting out from these objects, much stronger than the stellar wind from our Sun. The Wolf-Rayet stage lasts only millennia – a blink of the eye in cosmic time scales – before they violently explode.

    Unlike our Sun, many stars in the universe exist in pairs known as binaries. This is especially true of the most massive stars, such as Wolf-Rayets.

    When the fierce gales from a Wolf-Rayet star clash with their weaker companion’s wind, they compress each other. In the eye of this storm forms a dense, cool environment in which the carbon-rich winds can condense into dust. The earliest carbon dust in the cosmos – the first of the material making up our own bodies – was made this way.

    The dust from the Wolf-Rayet is blown out in almost a straight line, and the orbital motion of the stars wraps it into a spiral-shaped nebula, appearing exactly like water from a sprinkler when viewed from above.

    We expected Apep to look like one of these elegant pinwheel nebulas, discovered by our colleague and co-author Peter Tuthill. To our surprise, it did not.

    The ‘pinwheel’ nebula of the triple Wolf-Rayet star system WR104.
    Peter Tuthill

    Equal rivals

    The new image was taken using JWST’s infrared camera, like the thermal cameras used by hunters or the military. It represents hot material as blue, and colder material in green through to red.

    It turns out Apep isn’t just one powerful star blasting a weaker companion, but two Wolf-Rayet stars. The rivals have near-equal strength winds, and the dust is spread out in a very wide cone and wrapped into a wind-sock shape.

    When we originally described Apep in 2018, we noted a third, more distant star, speculating whether it was also part of the system or a chance interloper along the line of sight.

    The dust appeared to be moving much slower than the winds, which was hard to explain. We suggested the dust might be carried on a slow, thick wind from the equator of a fast-spinning star, rare today but common in the early universe.

    The new, much more detailed data from JWST reveals three more dust shells zooming farther out, each cooler and fainter than the last and spaced perfectly evenly, against a background of swirling dust.

    The Apep nebula in false colour, displaying infrared data from JWST’s MIRI camera.
    Han et al./White et al./Dholakia; NASA/ESA

    New data, new knowledge

    The JWST data are now published and interpreted in a pair of papers, one led by Caltech astronomer Yinuo Han, and the other by Macquarie University Masters student Ryan White.

    Han’s paper reveals how the nebula’s dust cools, links the background dust to the foreground stars, and suggests the stars are farther away from Earth than we thought. This implies they are extraordinarily bright, but weakens our original claim about the slow winds and rapid rotation.

    In White’s paper, he develops a fast computer model for the shape of the nebula, and uses this to decode the orbit of the inner stars very precisely.

    He also noticed there’s a “bite” taken out out of the dust shells, exactly where the wind of the third star would be chewing into them. This proves the Apep family isn’t just a pair of twins – they have a third sibling.

    An illustration of the cavity carved by the third star companion in the Apep system.
    White et al. (2025)

    Understanding systems like Apep tells us more about star deaths and the origins of carbon dust, but these systems also have a fascinating beauty that emerges from their seemingly simple geometry.

    The violence of stellar death carves puzzles that would make sense to Newton and Archimedes, and it is a scientific joy to solve them and share them.

    Benjamin Pope receives funding from the Australian Research Council and the Big Questions Institute.

    ref. Swirling nebula of two dying stars revealed in spectacular detail in new Webb telescope image – https://theconversation.com/swirling-nebula-of-two-dying-stars-revealed-in-spectacular-detail-in-new-webb-telescope-image-258314

    MIL OSI AnalysisEveningReport.nz

  • MIL-OSI Submissions: Swirling nebula of two dying stars revealed in spectacular detail in new Webb telescope image

    Source: The Conversation – Global Perspectives – By Benjamin Pope, Associate Professor, School of Mathematical and Physical Sciences, Macquarie University

    The day before my thesis examination, my friend and radio astronomer Joe Callingham showed me an image we’d been awaiting for five long years – an infrared photo of two dying stars we’d requested from the Very Large Telescope in Chile.

    I gasped – the stars were wreathed in a huge spiral of dust, like a snake eating its own tail.

    The coils of Apep as captured by the European Space Observatory’s Very Large Telescope.
    ESO/Callingham et al., CC BY

    We named it Apep, for the Egyptian serpent god of destruction. Now, our team has finally been lucky to use NASA’s James Webb Space Telescope (JWST) to look at Apep.

    If anything could top the first shock of seeing its beautiful spiral nebula, it’s this breathtaking new image, with the JWST data now analysed in two papers on arXiv.

    Violent star deaths

    Right before they die as supernovae, the universe’s most massive stars violently shed their outer hydrogen layers, leaving their heavy cores exposed.

    These are called Wolf-Rayet stars after their discoverers, who noticed powerful streams of gas blasting out from these objects, much stronger than the stellar wind from our Sun. The Wolf-Rayet stage lasts only millennia – a blink of the eye in cosmic time scales – before they violently explode.

    Unlike our Sun, many stars in the universe exist in pairs known as binaries. This is especially true of the most massive stars, such as Wolf-Rayets.

    When the fierce gales from a Wolf-Rayet star clash with their weaker companion’s wind, they compress each other. In the eye of this storm forms a dense, cool environment in which the carbon-rich winds can condense into dust. The earliest carbon dust in the cosmos – the first of the material making up our own bodies – was made this way.

    The dust from the Wolf-Rayet is blown out in almost a straight line, and the orbital motion of the stars wraps it into a spiral-shaped nebula, appearing exactly like water from a sprinkler when viewed from above.

    We expected Apep to look like one of these elegant pinwheel nebulas, discovered by our colleague and co-author Peter Tuthill. To our surprise, it did not.

    The ‘pinwheel’ nebula of the triple Wolf-Rayet star system WR104.
    Peter Tuthill

    Equal rivals

    The new image was taken using JWST’s infrared camera, like the thermal cameras used by hunters or the military. It represents hot material as blue, and colder material in green through to red.

    It turns out Apep isn’t just one powerful star blasting a weaker companion, but two Wolf-Rayet stars. The rivals have near-equal strength winds, and the dust is spread out in a very wide cone and wrapped into a wind-sock shape.

    When we originally described Apep in 2018, we noted a third, more distant star, speculating whether it was also part of the system or a chance interloper along the line of sight.

    The dust appeared to be moving much slower than the winds, which was hard to explain. We suggested the dust might be carried on a slow, thick wind from the equator of a fast-spinning star, rare today but common in the early universe.

    The new, much more detailed data from JWST reveals three more dust shells zooming farther out, each cooler and fainter than the last and spaced perfectly evenly, against a background of swirling dust.

    The Apep nebula in false colour, displaying infrared data from JWST’s MIRI camera.
    Han et al./White et al./Dholakia; NASA/ESA

    New data, new knowledge

    The JWST data are now published and interpreted in a pair of papers, one led by Caltech astronomer Yinuo Han, and the other by Macquarie University Masters student Ryan White.

    Han’s paper reveals how the nebula’s dust cools, links the background dust to the foreground stars, and suggests the stars are farther away from Earth than we thought. This implies they are extraordinarily bright, but weakens our original claim about the slow winds and rapid rotation.

    In White’s paper, he develops a fast computer model for the shape of the nebula, and uses this to decode the orbit of the inner stars very precisely.

    He also noticed there’s a “bite” taken out out of the dust shells, exactly where the wind of the third star would be chewing into them. This proves the Apep family isn’t just a pair of twins – they have a third sibling.

    An illustration of the cavity carved by the third star companion in the Apep system.
    White et al. (2025)

    Understanding systems like Apep tells us more about star deaths and the origins of carbon dust, but these systems also have a fascinating beauty that emerges from their seemingly simple geometry.

    The violence of stellar death carves puzzles that would make sense to Newton and Archimedes, and it is a scientific joy to solve them and share them.

    Benjamin Pope receives funding from the Australian Research Council and the Big Questions Institute.

    ref. Swirling nebula of two dying stars revealed in spectacular detail in new Webb telescope image – https://theconversation.com/swirling-nebula-of-two-dying-stars-revealed-in-spectacular-detail-in-new-webb-telescope-image-258314

    MIL OSI

  • MIL-OSI Australia: ARENA backs Calix with $44.9M to fire up green steel future

    Source: Ministers for the Department of Industry, Innovation and Science

    Overview

    • Category

      News

    • Date

      24 July 2025

    • Classification

      Renewables for industry

    The Australian Renewable Energy Agency (ARENA) has committed $44.9 million to Calix to build a novel demonstration plant using its Zero Emissions Steel Technology (ZESTY).

    Powered by renewable electricity and hydrogen, the plant will aim to produce up to 30,000 tonnes of low-carbon hydrogen direct reduced iron (HDRI) and hot briquetted iron (HBI) each year in a strong step toward cleaner steelmaking.

    ZESTY leverages Calix’s proprietary Flash Calciner technology which aims to reduce the cost of green iron production. The new funding builds on the successful outcomes of ARENA funded engineering studies for the demonstration plant. The funding also supports early-stage engineering studies for a much larger commercial scale ZESTY plant, helping build local capability in low emissions metals—a strategic priority for ARENA and a critical future industry for Australia.

    The project will also showcase a flexible green iron process that can ramp production up or down to match renewable energy supply—supporting a smarter, cleaner industrial future.

    ARENA CEO Darren Miller stressed that finding a low or zero emissions pathway for steelmaking is crucial, given its significant contribution to global emissions.

    “As the world’s largest producer and exporter of iron ore, Australia has a critical role in reducing emissions across the steel value chain,” he said.

    “ZESTY is a strong step toward building a low-emissions steel industry at home.”

    “What makes ZESTY so compelling is its potential to dramatically lower the amount of hydrogen required to convert iron ore into pure iron. ZESTY, in combination with use of renewable electricity from Australia’s world-class solar and wind resources, has the potential to create a new green iron industry targeting both domestic and export markets as the world transitions away from fossil fuels.”

    Calix CEO Phil Hodgson welcomed the funding, saying, “green iron can tackle one of the world’s hardest to abate emissions sources while adding value to Australia’s biggest export. ZESTY is designed to do this cost effectively – minimising hydrogen use, avoiding pelletisation, and operating flexibly on low-cost electricity.”

    Founded in 2005, Calix is an Australian innovator in sustainable high-temperature mineral processing, with applications across steel, cement, alumina, lithium and critical minerals.

    ARENA media contact:

    media@arena.gov.au

    Download this media release (PDF 151KB)

    MIL OSI News

  • MIL-OSI United Kingdom: £30 million to decarbonise shipping, boost careers and deliver growth across the UK

    Source: United Kingdom – Government Statements

    Press release

    £30 million to decarbonise shipping, boost careers and deliver growth across the UK

    Funding will be crucial in supporting the green fuels and technologies of the future, so we can clean up sea travel and trade.

    • coastal communities across the UK will benefit from £30 million to make shipping and sea travel greener, boosting local economies, and supporting jobs and skills
    • decarb funding is helping to revitalise Glasgow’s strong shipbuilding heritage, as Maritime Minister heralds a new Scottish-built high-tech wing sail which can save ships up to 40% per annum in fuel and emissions
    • latest boost builds on over £136 million for already delivered to more than 142 organisations across every region in the UK, delivering on the government’s Plan for Change missions to kickstart economic growth and become a clean energy superpower.

    Coastal communities across the UK are to benefit from £30 million funding to decarbonise shipping and power up local economies the Maritime Minister will announce today (24 July 2025) during a visit to Clydeport in Glasgow.

    Awarded from the sixth round of the Clean Maritime Demonstration Competition (CMDC), successful companies will be given a share of funding to support the development of clean maritime fuels and technologies such as ammonia, hydrogen, methanol, solar and electric. 

    Investment in green fuels not only supports the decarbonisation of shipping, helping cement the UK as a clean energy superpower, it also revitalises coastal communities by growing local economies and boosting jobs and skills.   

    CMDC has provided over £136 million funding to date to 142 organisations, as part of the wider UK SHORE funding – the government’s flagship programme dedicated to decarbonising maritime – for over 300 organisations, including 250 SMEs. Successful projects include the installation of electric chargepoint networks across ports, including at Aberdeen, the demonstration of an electric crew transfer vessel at Aberdeen Offshore Wind Farm, and the demonstration of a green hydrogen shore power system at the port of Leith. 

    Maritime Minister Mike Kane said:  

    It’s so exciting to see investment in green fuels and technologies spurring on skills, innovation and manufacturing across the UK, delivering on our Plan for Change missions to kickstart economic growth and become a clean energy superpower.

    We’ve charted a course to net zero shipping by 2050 and this £30 million will be crucial in supporting the green fuels and technologies of the future, so we can clean up sea travel and trade.

    During his visit to Clydeport, the minister will meet with workers from the National Manufacturing Institute Scotland, which is looking to help Smart Green Shipping scale up the manufacturing of the FastRig windsail going forward. Built nearby in Glasgow, the FastRig is a high-tech wing sail which can be installed onto vessels, reducing fuel use and emissions by up to 40% per annum. The project received £3.3 million from the third round of the CMDC and has now been successfully deployed at sea. 

    Chris Courtney, CEO, National Manufacturing Institute Scotland said:

    Clean maritime is a vital part of a wider mission to decarbonise transport. Advanced manufacturing is critical to enable companies to scale up novel solutions that deliver emissions reductions and allow the creation of new jobs in these industries of the future.

    We’ve spent the past 2 years working on the CMDC-funded MariLight projects, led by Glasgow-based Malin Marine Consultants, part of the Malin Group, supported by industry partners, where we demonstrated how advanced manufacturing can cut lead times, lower carbon, and enable localised production in shipbuilding. It’s great to see continued momentum through the programme, and we look forward to supporting Smart Green Shipping’s journey as it scales.

    Diane Gilpin, Smart Green Shipping (SGS), CEO said:

    CMDC3 support enabled SGS, a Scottish based business, to demonstrate the safety and robustness of FastRig, our Cyldebuilt wingsails, and to build out our digital decision-making platform, FastReach, which underpins our unique wind-as-a-service proposition.

    Over the last 3 years SGS has invested £7.6 million in R&D, 60% of that in Scotland. We’ve drawn upon engineering design skills in adjacent sectors like renewables and oil and gas, and digital expertise created in Scotland’s vibrant tech community. We are also working alongside the National Manufacturing Institute of Scotland to design circular manufacturing solutions to reduce embedded emissions and minimise use of precious materials while creating good green jobs as part of a sustainable just transition.

    The minister will meet with Peel Ports and local workers at Clydeport’s King George V Docks. Delivering £3 million of investment to support the growing demand for handling huge wind turbine components for the renewable energy sector, Clydeport is keeping Glasgow’s shipbuilding heritage and manufacturing expertise alive, equipping it to meet the modern-day needs of the sector. 

    Jim McSporran, Port Director at Peel Ports Clydeport, said:

    We’re proud to welcome the Maritime Minister to Peel Ports Clydeport today and showcase how our facilities continue to create opportunities for investment, jobs and skills that will benefit the people and businesses of Scotland. 

    Our recent £3 million investment in road infrastructure at King George V Dock to accommodate growing demand for handling wind turbine components, and our ongoing transformative work at Hunterston PARC in Ayrshire to support the renewables sector, demonstrate our commitment to decarbonising supply chains and enabling the transition to a greener economy.  

    It’s fantastic to see government and industry working together to back innovation and today’s visit reinforces how Glasgow’s maritime legacy is helping to drive the UK’s clean energy future.

    Mike Biddle, Executive Director, Net Zero at Innovate UK, said:

    Congratulations to the awarded projects from Round 6 of the Clean Maritime Demonstrator Competition – a great opportunity for UK innovators to take part in a world-renowned maritime transport R&D grant funding programme. Innovate UK looks forward to working with partners to support these projects focused on the ever-more prevalent issue of decarbonisation with emphasis on a range of physical, digital, system and skills-based innovation.

    Building on its commitment to clean up shipping and deliver on the UK’s climate ambitions, UK SHORE is also delivering £3.85 million to the Clean Maritime Research Hub. Formed from a consortium of 13 universities across the UK, dedicated to conducting scientific research in clean maritime, the funding will enable the hub to continue its important research, and support the installation of a liquid hydrogen facility at Durham University. The centre will develop the maritime sector’s understanding of the potential impact of liquid hydrogen – which is emission free – in the clean maritime transition.

    Maritime media enquiries

    Media enquiries 0300 7777 878

    Switchboard 0300 330 3000

    Updates to this page

    Published 24 July 2025

    MIL OSI United Kingdom

  • MIL-OSI Submissions: Maritime News – Passenger Ship HANARIA Equipped with Yanmar’s Maritime Hydrogen Fuel Cell System Wins Marine Engineering of the Year 2024

    Source: Yanmar Holdings

    July 23, 2025 – Osaka, Japan – The passenger vessel HANARIA, equipped with Yanmar Power Technology Co., Ltd.’s GH240FC maritime hydrogen fuel cell system, has received the Marine Engineering of the Year 2024 (Dokou Memorial Award). The honor is awarded by the Japan Institute of Marine Engineering for outstanding technological innovation in the field. This year, the award recognized four companies: MOL Techno-Trade, Ltd., HONGAWARA Ship Yard Co., Ltd., Toyota Motor Corporation, and Yanmar Power Technology, a subsidiary of Yanmar Holdings.

    HANARIA is Japan’s first hybrid passenger ship powered by both hydrogen and biodiesel. Operated by MOL Techno-Trade, Ltd., the vessel features Yanmar’s first maritime hydrogen fuel cell system, a proprietary lithium-ion battery system developed by Yanmar, and an integrated management system that controls all onboard power. It features two operating modes: a zero-emission mode using only hydrogen fuel cell systems and lithium-ion batteries, and a hybrid mode that combines hydrogen fuel cells, lithium-ion batteries, and a biodiesel generator running in parallel.

    The onboard systems aim to reduce the environmental footprint of vessels—a challenge in the hard-to-electrify maritime sector—while also enhancing passenger comfort by significantly cutting noise, vibration and exhaust odor.

    Furthermore, HANARIA has been selected for the “Ship of the Year 2024,” an award presented by the Japan Society of Naval Architects and Ocean Engineers that recognizes vessels demonstrating technical, artistic, and social excellence. This marks the first time in history that a vessel has received both the “Marine Engineering of the Year” and the “Ship of the Year” awards.

    The Yanmar Group continues to advance its sustainability goals through its YANMAR GREEN CHALLENGE 2050 initiative and remains committed to providing decarbonization solutions that meet customer needs.

    References

    Press release (November 9, 2023): Yanmar Makes First Delivery of Maritime Hydrogen Fuel Cell System to Hybrid Passenger Ship

    https://www.yanmar.com/global/marinecommercial/news/2023/11/09/130776.html

    Press release (July 9, 2025): Yanmar Maritime Hydrogen Fuel Cell System Wins Red Dot Design Award 2025

    https://www.yanmar.com/global/news/2025/07/09/154079.html

    About Yanmar

    With beginnings in Osaka, Japan, in 1912, Yanmar was the first ever to succeed in making a compact diesel engine of a practical size in 1933. A pioneer in diesel engine technology, Yanmar is a global innovator in a wide range of industrial equipment, from small and large engines, agricultural machinery and facilities, construction equipment, energy systems, marine, to machine tools, and components — Yanmar’s global business operations span seven domains. On land, at sea, and in the city, Yanmar provides advanced solutions to the challenges customers face, towards realizing A Sustainable Future. For more details, please visit the official website of Yanmar Holdings Co., Ltd.

    MIL OSI – Submitted News

  • MIL-OSI: Fusion Fuel Green PLC Announces $4.3 Million Private Placement and Noteholder Agreements

    Source: GlobeNewswire (MIL-OSI)

    DUBLIN, July 23, 2025 (GLOBE NEWSWIRE) — Fusion Fuel Green PLC (Nasdaq: HTOO) (“Fusion Fuel” or the “Company”), a provider of integrated energy solutions, today announced that it has entered into a definitive agreement for a private placement (the “PIPE”) with investors for aggregate gross proceeds of $4.3 million.

    Under the Securities Purchase Agreement, dated July 22, 2025 (the “Securities Purchase Agreement”), Fusion Fuel will issue and sell:

    • 269,459 Class A Ordinary Shares;
    • Pre-funded warrants to purchase 541,706 Class A Ordinary Shares at a nominal exercise price of $0.0035 per share, which can be converted at any time;
    • Warrants to purchase 1,622,330 Class A Ordinary Shares at an exercise price of $4.926 per share, with a three-year exercise window; and
    • Warrants to purchase 811,165 Class A Ordinary Shares at an exercise price of $9.852 per share, with a three-year exercise window.

    The Securities Purchase Agreement requires Fusion Fuel to use the net proceeds from the offering to fully repay any indebtedness under its outstanding Senior Convertible Notes dated January 10, 2025 and March 3, 2025 (collectively, the “2025 Notes”). The remaining funds will support general corporate and working capital purposes, as well as transaction-related costs.

    In connection with the PIPE, the Company also entered into agreements with holders of the 2025 Notes, providing for:

    • Redemption of any unconverted or unpaid 2025 Notes, which had been converted in full as of July 22, 2025;
    • Cancellation of previously issued warrants to the noteholders and an exchange for new warrants to purchase an aggregate of 294,658 Class A Ordinary Shares pursuant to Section 3(a)(9) under the U.S. Securities Act of 1933, as amended (the “Securities Act”); and
    • waivers and releases from noteholders regarding certain rights and obligations under prior agreements.

    The PIPE was conducted as a private placement exempt from registration under Section 4(a)(2) of the Securities Act and/or Rule 506(b) of Regulation D promulgated thereunder. Fusion Fuel has agreed to file a registration statement with the U.S. Securities and Exchange Commission (the “SEC”) within 15 days of the closing to register the resale of the securities issued in the PIPE.

    John-Paul Backwell, CEO of Fusion Fuel, commented, “This transaction significantly simplifies our capital structure, allowing us to make important headway on several legacy items while maintaining strong forward momentum. With a cleaner and simplified cap table and funding terms, as well as greater financial flexibility, we are well-positioned to continue delivering on our ambitious growth plans for 2025 and beyond.”

    About Fusion Fuel Green PLC

    Fusion Fuel Green PLC (NASDAQ: HTOO) provides integrated energy engineering, distribution, and green hydrogen solutions through its Al Shola Gas and BrightHy Solutions platforms. With operations spanning LPG supply to hydrogen solutions, the Company supports decarbonization across industrial, residential, and commercial sectors.

    Forward-Looking Statements

    This press release includes “forward-looking statements” within the meaning of Section 27A of the Securities Act, and Section 21E of the U.S. Securities Exchange Act of 1934, as amended, which statements involve substantial risks and uncertainties. Forward-looking statements generally relate to future events or the Company’s future financial or operating performance. In some cases, you can identify these statements because they contain words such as “may,” “will,” “believes,” “expects,” “anticipates,” “estimates,” “projects,” “intends,” “should,” “seeks,” “future,” “continue,” “plan,” “target,” “predict,” “potential,” or the negative of such terms, or other comparable terminology that concern the Company’s expectations, strategy, plans, or intentions. Forward-looking statements relating to expectations about future results or events are based upon information available to the Company as of today’s date and are not guarantees of the future performance of the Company, and actual results may vary materially from the results and expectations discussed. The Company’s expectations and beliefs regarding these matters may not materialize, and actual results in future periods are subject to risks and uncertainties that could cause actual results to differ materially from those projected, including, without limitation, the risks and uncertainties described under Item 3. “Key Information – D. Risk Factors” and elsewhere in the Company’s Annual Report on Form 20-F filed with the SEC, on May 9, 2025 (the “Annual Report”), and other filings with the SEC. Should any of these risks or uncertainties materialize, or should the underlying assumptions about the Company’s business and the commercial markets in which the Company operates prove incorrect, actual results may vary materially from those described as anticipated, estimated or expected in the Annual Report. All subsequent written and oral forward-looking statements concerning the Company or other matters and attributable to the Company or any person acting on its behalf are expressly qualified in their entirety by the cautionary statements above. The Company does not undertake any obligation to publicly update any of these forward-looking statements to reflect events or circumstances that may arise after the date hereof, except as required by law.

    Investor Relations Contact
    ir@fusion-fuel.eu 
    www.fusion-fuel.eu

    The MIL Network

  • MIL-OSI: EnerPure Appoints Advisory Board Members to Support Strategic Growth and Commercialization Efforts

    Source: GlobeNewswire (MIL-OSI)

    Winnipeg, MB, July 23, 2025 (GLOBE NEWSWIRE) — EnerPure Inc. (“EnerPure” or the “Company”), a waste to energy company, is pleased to announce the appointment of Gary Farrar, Susan Rohac, and Mogens L. Mathiesen as Advisory Board Members. Each of these newly appointed Advisors brings significant industry experience and expertise in their respective areas and their thought leadership, strategic acumen, and experience will be invaluable to management as EnerPure moves through the commercialization and growth phase.

    “Gary, Susan, and Mogens as true experts in their respective fields provide tremendous depth and width to the knowledge base of our team, we are honoured to have them on the team” said Rick Koshman, President and CEO of EnerPure. “Each of them brings a unique and highly complementary skill set that aligns perfectly with our goal to deploy 21 recycling plants in 6 years. Gary with over 46 years experience in UMO recycling, Susan as one of Canada’s most prolific Cleantech investors, and Mogens with his shipping decarbonization focus provide us with priceless industry insights and know-how as we look to navigate the next few years.”

    About Gary Farrar
    Gary is a seasoned executive with over 45 years of leadership in the used motor oil (UMO) recycling and environmental services industry across North America. His expertise spans operations, business development, logistics, refinery supply, and sales. He has held senior roles including U.S. Vice President of Supply and Product Sales at Safety-Kleen, where he led the growth of recycled oil streams and oversaw the world’s largest UMO re-refinery. As General Manager of Safety-Kleen Canada, he managed nationwide operations and multiple business lines. At Heritage-Crystal Clean, he helped launch and scale a 75-million-gallon refinery in Indianapolis. Gary is known for building high-performing teams and driving operational and commercial success in complex industrial environments.

    About Susan Rohac  LinkedIn
    Susan recently retired from BDC (Business Development Bank of Canada) after 34 years of service. As Managing Partner of the Climate Tech venture capital fund, she led a pan-Canadian team of investment professionals and managed a portfolio of over $1 billion in assets including a $500 million fund that was launched in 2022 focusing on investing in Canada’s most promising cleantech companies. She has invested in a wide range of climate technologies such as CCUS, CDR, hydrogen, critical minerals, energy storage/battery, mobility, proptech, and advanced materials. Susan was recognized as a Climate Leader in 2024 by the Clean50 and was recipient of the Clean16 award. Susan holds honour degrees in both science and finance and has her executive MBA and ICD governance designation.

    About Mogens L. Mathiesen – LinkedIn
    Mogens has over 25 years of expertise in maritime technology and sustainability. Specializing in maritime decarbonisation, he has pioneered data-driven solutions to reduce shipping emissions. As Chief Industry and Strategy Officer at HUB Ocean, Mogens led initiatives to enable green shipping routes and foster industry collaboration. He co-founded Arundo Analytics, driving the development of analytics platforms for maritime applications, and volunteers in the Ocean Rescue Service in Norway. With an M.Sc. in Ocean Engineering and Marine Cybernetics from the NTNU and UC Berkeley, Mogens is committed to advancing sustainable practices through innovation and strategic leadership.

    About EnerPure – https://enerpure.tech
    We recycle Used Motor Oil (UMO) to reduce GHG emissions while producing a lower carbon-intensive marine fuel.”

    Each year ~17 billion litres of UMO* are improperly burned or dumped, causing widespread environmental harm. EnerPure sees a tremendous opportunity to solve this problem through the deployment of its modular micro-scale recycling plants using its patented technology to convert UMO into high-quality marine fuel.

    EnerPure is entering its next phase of growth, with our first commercial plant planned for Alberta. Our recycling plants require ~5% of the capex of traditional solutions, enabling localized recycling (while reducing the cost of collection) and providing strong economic returns. 

    Our technology has been proven via our pilot plant (operating at 43% of scale) with 1.6 million litres processed and validated through the sale of over 1.2 million litres. Our drop-in ISO 8217-compliant marine fuel is in high demand in a growing market with its 14.6% lower carbon intensity.  Annually each recycling plant can reduce greenhouse gas (“GHG”) emissions and criteria air contaminants by 36,315 and 437 tonnes, respectively.

    EnerPure, while delivering strong economic returns, offers a proven, scalable platform where environmental need meets commercial opportunity, powering the energy transition through smart regional recycling.

    *UMO is defined as any petroleum-based or synthetic lubricating oil that cannot be used for its original purpose due to contamination.

    Disclosure and Caution
    This press release may contain certain disclosures that may constitute “forward-looking statements” within the meaning of Canadian securities legislation. In making the forward-looking statements, the Company has applied certain factors and assumptions that the Company believes are reasonable. However, the forward-looking statements are subject to numerous risks, uncertainties and other factors, including but not limited to economic, capital expenditures, and engineering projections, that may cause future results to differ materially from those expressed or implied in such forward-looking statements. There can be no assurance that such statements will prove to be accurate, and actual results and future events could differ materially from those anticipated in such statements. Readers are cautioned not to place undue reliance on forward-looking statements. The Company does not intend, and expressly disclaims any intention or obligation to, update or revise any forward-looking statements whether as a result of new information, future events or otherwise, except as required by law.

    The securities referred to in this news release have not been, and will not be, registered under the United States Securities Act of 1933, as amended, or any state securities laws, and may not be offered or sold in the United States unless pursuant to an exemption therefrom. This press release is for information purposes only and does not constitute an offer to sell or a solicitation of an offer to buy any securities of the Company in any jurisdiction.

     

    The MIL Network

  • MIL-OSI: Next Hydrogen Announces Aggregate of $1.5 million in Loans and Provides Corporate Update

    Source: GlobeNewswire (MIL-OSI)

    MISSISSAUGA, Ontario, July 23, 2025 (GLOBE NEWSWIRE) — Next Hydrogen Solutions Inc. (the “Company” or “Next Hydrogen”) (TSXV:NXH, OTC:NXHSF), is pleased to announce that it is entering into a loan agreement with certain existing directors and officers of the Company (the “Lenders”) providing for the advance of an unsecured loan (the “Loan”) bearing interest at 5.0% per annum in the principal amount of $530,000. The Loan shall mature on the date that is one year from the advance of the Loan (the “Maturity Date”).   In conjunction with the advance of the Loan, the Company will also pay a set-up fee of $20,000 to the Lenders.

    The advance of the Loan is expected to take place on July 23, 2025, immediately prior to the advance of a $1 million loan from an arm’s length commercial lender (the “Original Loan”) that is being negotiated between the Company and such lender. There can be no assurances that the Original Loan will be completed as proposed or at all.

    In consideration of the advance of the Loan by the Lenders, the Company shall, subject to the approval of the TSX Venture Exchange (the “TSXV”) in accordance with the policies of the TSXV, issue to the Lenders, an aggregate of 214,140 common shares of the Company (“Common Shares”) at a deemed price of $0.495 per share as bonus shares (the “Loan Bonus Shares”), representing approximately 20% of the principal amount of the Loan, subject to adjustment in accordance with the policies of the TSXV.

    In addition, subject to the approval of the TSXV in accordance with the policies of the TSXV, the Loan may be converted into Common Shares (the “Conversion Shares”) at the option of the Company, in whole or in part, on the earlier of the Maturity Date or the closing of an offering of equity securities of the Company.

    Next Hydrogen intends to use the proceeds of the Loan and the Original Loan for working capital and general corporate purposes. The Loan and the Original Loan will assist the Company in bridging its financial position in order to keep its talented team and continue operations while it evaluates longer term financial and strategic solutions.

    In conducting its review of financial and strategic solutions, the Company’s board and management team are committed to acting in the best interests of the Company, its shareholders and its stakeholders. There is no deadline or definitive timetable for the completion of the review of financial and strategic solutions, and the Company does not intend to comment further unless the Company’s board has approved a specific transaction or otherwise determined that disclosure is necessary or appropriate. There can be no assurances that the review will result in any specific transaction or outcome.

    This issuance of the Loan Bonus Shares and the Conversion Shares, if applicable, are subject to receipt of all required regulatory approvals, including that of the TSXV. The TSXV has in no way passed upon the merits of the Loan or the Original Loan and has neither approved nor disapproved the contents of this press release.

    All moneys quoted in this press release shall be stated and paid in the lawful money of Canada.

    The Company also advises that the last day of trading of the Common Shares on the OTCQX will be Thursday, July 24, 2025.

    The Lenders consist of Allan MacKenzie, Anthony Guglielmin, Adarsh Mehta, Jens Peter Clausen, Susan Uthayakumar and Walter Howard, each a director of the Company, Raveel Afzaal, the Chief Executive Officer and a director of the Company and Rohan Advani, the Chief Financial Officer of the Company. Each Lender is an Insider of the Company (as such term is defined under the policies of the TSXV) and the participation of Insiders in the Loan would constitute a “related party transaction” within the meaning of Multilateral Instrument 61-101 – Protection of Minority Security Holders in Special Transactions (“MI 61-101”). The Company is relying on exemptions from the formal valuation requirements of MI 61-101 pursuant to section 5.5(b) as the Company is not listed on a specified market and the minority shareholder approval requirements of MI 61-101 pursuant to section 5.7(1)(b), based on a determination that the fair market value of the Loan, insofar as it involves the related parties, will not exceed $2,500,000. The Company did not file a material change report 21 days prior to the expected closing date of the Loan as closing occurred on an expedited basis. An aggregate of 214,140 Loan Bonus Shares will be issued to the Lenders which in the aggregate represents less than 1.0% of the issued and outstanding Common Shares.

    About Next Hydrogen

    Founded in 2007, Next Hydrogen is a designer and manufacturer of electrolyzers that use water and electricity as inputs to generate clean hydrogen for use as an energy source. Next Hydrogen’s unique cell design architecture supported by 40 patents enables high current density operations and superior dynamic response to efficiently convert intermittent renewable electricity into green hydrogen on an infrastructure scale. Following successful pilots, Next Hydrogen is scaling up its technology to deliver commercial solutions to decarbonize transportation and industrial sectors.

    Contact Information

    Raveel Afzaal, President and Chief Executive Officer
    Next Hydrogen Solutions Inc.
    Email: rafzaal@nexthydrogen.com
    Phone: 647-961-6620

    www.nexthydrogen.com

    Neither the TSXV nor its Regulation Services Provider (as that term is defined in the policies of the TSXV) accepts responsibility for the adequacy or accuracy of this release.

    Cautionary Statements

    This news release contains “forward-looking information” and “forward-looking statements”. All statements, other than statements of historical fact, are forward-looking statements and are based on expectations, estimates and projections as at the date of this news release. Any statement that involves discussions with respect to predictions, expectations, beliefs, plans, projections, objectives, assumptions, future events or performance (often but not always using phrases such as “expects”, or “does not expect”, “is expected”, “anticipates” or “does not anticipate”, “plans”, “budget”, “scheduled”, “forecasts”, “estimates”, “believes”, or “intends” or variations of such words and phrases or stating that certain actions, events or results “may” or “could”, “would”, “might” or “will” be taken to occur or be achieved) are not statements of historical fact and may be forward-looking statements. Forward-looking statements are necessarily based upon a number of estimates and assumptions that, while considered reasonable, are subject to known and unknown risks, uncertainties, and other factors which may cause the actual results and future events to differ materially from those expressed or implied by such forward-looking statements. Such factors include, but are not limited to: the risk that the Loan and the Original Loan will not be completed as planned or at all; changes to the use of proceeds of the Loan and the Original Loan, risks associated with the pursuit of any financial or strategic transaction or the completion thereof, the risks associated with the hydrogen industry in general; delays or changes in plans with respect to infrastructure development or capital expenditures; uncertainty with respect to the timing of any contemplated transactions or partnerships, or whether such contemplated transactions or partnerships will be completed at all; the timing for any submissions or correspondences with applicable securities laws regulators; whether the uncertainty of estimates and projections relating to costs and expenses; failure to obtain timely necessary regulatory approvals and all required TSXV approvals; health, safety and environmental risks; uncertainties resulting from potential delays or changes in plans with respect to infrastructure developments or capital expenditures; currency exchange rate fluctuations; as well as general economic conditions, stock market volatility; and the ability to access sufficient capital. There can be no assurance that such statements will prove to be accurate, as actual results and future events could differ materially from those anticipated in such statements. Accordingly, readers should not place undue reliance on the forward-looking statements and information contained in this news release. Except as required by law, there will be no obligation to update the forward-looking statements of beliefs, opinions, projections, or other factors, should they change.

    The MIL Network

  • MIL-OSI United Kingdom: Jobs unlocked as first wave of hydrogen projects sign contracts

    Source: United Kingdom – Government Statements

    Press release

    Jobs unlocked as first wave of hydrogen projects sign contracts

    10 projects from the first phase of the government’s flagship hydrogen programme can begin construction.

    • Spades in the ground as 10 of the UK’s first commercial-scale green hydrogen projects sign contracts, boosting growth as part of Plan for Change
    • homegrown, green hydrogen to fuel range of British business and industry with clean power, from tissue manufacturing and waste disposal to breweries and bus services
    • projects to unlock more than 700 good jobs across Britain in the clean energy industries of the future, while delivering on clean energy mission and industrial strategy

    Skilled jobs will be created in Britain’s industrial heartlands, as the first commercial-scale green hydrogen projects in the country sign long-term contracts to fuel heavy industry with clean, homegrown energy. 

    In an update to the hydrogen market, the government has confirmed that 10 projects from the first phase of its flagship hydrogen programme – Hydrogen Allocation Round (HAR1) – can begin construction, supporting the government’s mission to become a clean energy superpower.   

    This means spades can now enter the ground across the country in a major boost to the UK’s hydrogen industry, creating highly skilled jobs in industrial cities and regions such as South Wales, Bradford (North West), North Scotland and Teesside (North East).  

    These projects will support British industry to move away from using fossil fuels towards domestically-produced low-carbon hydrogen, reducing emissions heavy industry – such as steel, glass and heavy transport – ensuring decarbonisation is a route to reindustrialisation. 

    The HyMarnham project in Newark, Nottinghamshire has already started construction. The project is transforming the old High Marnham coal-fired power station into a clean energy hub by using hydrogen to decarbonise waste disposal operations.  

    Cromarty Hydrogen Project in Northeast Scotland is another of the 10 projects. The project’s 3 5MW electrolysers – which use electricity to split water into hydrogen and oxygen – will power local industrial users, including distilleries. 

    Taken together, the projects are expected to create over 700 jobs, including roles for apprentices, graduates, pipefitters and engineers. They are also expected to bring in over £400 million of private capital investment which has been committed between 2024 and 2026 – driving economic growth and British innovation through the Plan for Change. 

    The update comes as Andrex and Kleenex producer Kimberly-Clark announces that it will be the first major consumer goods company in the UK to make a significant commitment to green hydrogen. Kimberly-Clark, together with energy partners HYRO, Carlton Power, and Schroders Greencoat, will invest a combined £125 million into HAR1 projects at two plants in Barrow-in-Furness, Cumbria and Northfleet, Kent.

    Minister for Industry, Sarah Jones, said: 

    This government is rolling out hydrogen out at scale for the first time, with 10 of the first projects now shovel-ready to start powering businesses with clean, homegrown energy from Teesside to Devon.  

    Hydrogen will help us cut industrial emissions and support Britain’s industrial renewal by creating thousands of jobs in our industrial heartlands as part of the Plan for Change. 

    Neil McDermott, Chief Executive of Low Carbon Contracts Company (LCCC), said: 

    LCCC is proud to have signed the UK’s first Low Carbon Hydrogen Agreements, supporting the development of projects under the Hydrogen Production Business Model.  

    These agreements provide revenue stability for producers, and a clear signal that low-carbon hydrogen has a key role to play in the UK’s future energy system.  

    We look forward to working closely with project developers to bring these projects into operation.

    Dan Howell, Managing Director at Kimberly-Clark UK & Ireland said:  

    We are delighted to be the first UK consumer goods manufacturer to really embrace green hydrogen, showing that manufacturing industries can take the lead and overcome the technical challenge and adopt green hydrogen at scale. This initiative builds on the investments and progress we’ve already made with innovative technologies for our business, our consumers and our customers.

    Today’s announcement follows the Spending Review which saw an extra £500 million confirmed for the first ever hydrogen transport and storage network as part of Britain’s industrial renewal, connecting hydrogen producers with vital end users, including power stations and industry for the first time. 

    The government has also announced that it will consult on transmission-level hydrogen blending – assessing the economic and technical feasibility for hydrogen to be blended into the networks that are the backbone of Britain’s gas system, before it is safely transported into homes and businesses. 

    Hydrogen transmission blending has the potential to reduce costs for hydrogen production projects and the wider energy system, and the consultation will also gather evidence to assess whether hydrogen blending could lower consumers’ energy bills. 

    Clare Jackson, CEO of Hydrogen UK, said:  

    Signing these contracts demonstrates the confidence and commitment of both the government and industry in building a sustainable hydrogen sector.   

    Our members are at the forefront of this transition, and their projects will play a vital role in meeting the UK’s net-zero targets while driving economic growth and job creation.

    Dr Emma Guthrie, CEO of the Hydrogen Energy Association, said:  

    This announcement marks a significant and encouraging milestone for the UK’s hydrogen sector.   

    The signing of contracts for 10 projects under HAR1 provides vital momentum and confidence for industry and investors alike.   

    We look forward to seeing these projects move into the next phase, helping to scale up the UK’s low carbon hydrogen economy.

    Pierre de Raphélis-Soissan, CEO of Hynamics UK who are developing the Tees Green Hydrogen project, said:  

    We are delighted that Tees Green Hydrogen has successfully signed a contract as part of the Hydrogen Allocation Round.   

    We are committed to advancing low carbon hydrogen solutions that not only support the UK’s energy transition but also contribute to a sustainable future for our communities.   

    This achievement marks a significant milestone in the journey towards industrial decarbonisation within the Tees Valley region.

    Gareth Mills and Kevin Selleslags, on behalf of Bradford Low Carbon Hydrogen (BLCH) said: 

    Signing our contract to take the largest HAR 1 project forward is a significant step.  

    Thanks to the government’s investment, we’re able to continue to progress our plans to transform Birkshall from a former fossil fuel gas site powering Bradford’s homes and businesses to a flagship low carbon hydrogen production facility and fuelling station.  

    The scheme will not only help the area decarbonise with cleaner fuel but will vitally create around £120 million and support 125 jobs in the regional economy.

    Alistair Collins, Director at HyMarnham Power, said:   

    As one of the first HAR1 projects now commissioning electrolyser systems, we’re proud to demonstrate what government support can unlock, real infrastructure, green hydrogen production and a tangible contribution to the UK’s net zero and energy security goals.

    Lucy Whitford, RES’ Managing Director, UK&I, said:  

    Green hydrogen, created using British low carbon energy, will revolutionise how we power industry, helping the UK to build a globally competitive, zero carbon economy in the process.  

    We are proud of the success of HYRO’s Northfleet project, which will show how we can make green hydrogen a reality.

    Notes to editors

    HAR1 projects are expected to access over £2 billion over 15 years in revenue support from the Hydrogen Production Business Model and over £90 million in capital expenditure support via the Net Zero Hydrogen Fund. 

    Further details of the 10 projects which have signed to HAR1 are detailed in the table below, with contracts available on the LCCC registry

    Government is working collaboratively with the project developer of the final HAR1 project to ensure they are ready to sign the Low Carbon Hydrogen Agreement as soon as possible. 

    See the transmission blending consultation.

    Project name Developer Constituency Summary
    Cromarty Hydrogen Project Scottish Power & Storegga Caithness, Sutherland and Easter Ross Cromarty Green Hydrogen Project is located in northeast Scotland and is being developed by Scottish Power and Storegga. The project will use electricity from nearby wind farms produce hydrogen that could be sold to local industrial offtakers, including distilleries.
    Bradford Low Carbon Hygen Bradford East Bradford Low Carbon Hydrogen is located within the city centre of Bradford, Yorkshire and is being developed by Hygen in partnership with Ryze. The project will use renewable electricity to produce hydrogen for use in a range of offtakers in the mobility sector. JCB and Wrightbus are key potential customers.
    West Wales Hydrogen Project Morgen & Trafigura Mid and South Pembrokeshire West Wales Hydrogen Project is located in Milford Haven, West Wales, and is being developed by MorGen and Trafigura. The project will produce hydrogen could be sold to local industrial offtakers including Natural Gas facilities to decarbonise their operations.
    High Marnham JG Pears & GeoPura Newark HyMarnham is located on the site of an old coal power station in the East Midlands and is being developed by JG Pears and GeoPura. Hydrogen produced is expected to be used by GeoPura to supply their remote power generation units and by JG Pears as part of their waste disposal operations.
    Whitelee Green Hydrogen Scottish Power Kilmarnock and Loudoun Whitelee Green Hydrogen is located in central Scotland, 14 miles south of Glasgow and is being developed by Scottish Power. The project will use electricity from Whitelee Wind Farm to produce hydrogen to be sold to local distilleries and transportation companies to decarbonise their operations.
    Green Hydrogen 3 HYRO Gravesham Green Hydrogen 3 is located in Northfleet, South east, and is developed by HYRO. Electricity will be sourced through a renewable Power Purchase Agreement and aims to be used to produce hydrogen for use in a paper mill to power industrial boilers.
    Trafford Carlton Power Stretford and Urmston (Greater Manchester) Trafford Hydrogen Project is located in Trafford, Manchester and is being developed by Carlton Power. The project will produce hydrogen to be sold to a range of local industrial offtakers.
    Barrow   Barrow-in-Furness (Cumbria) Barrow Hydrogen is located in Cumbria and is being developed by Carlton Power. The project could provide low carbon hydrogen to the neighbouring Kimberly Clark tissue manufacturing site.
    Langage   South West Devon (Plymouth) Langage green hydrogen is located in Plymouth and is being developed by Carlton Power. The project will supply hydrogen to companies located in Langage Energy Park which could utilise Hydrogen in place of gas in industrial processes such as minerals processing.
    Tees Green EDF/Hynamics Redcar (Teesside) The Tees Green hydrogen project is located in Teeside. Low carbon hydrogen will be produced from electricity generated in the Teesside Offshore Wind Farm for use in the production of Sustainable Aviation Fuel, helping decarbonise the aviation industry in the future.

    Updates to this page

    Published 23 July 2025

    MIL OSI United Kingdom

  • MIL-OSI United Kingdom: Tailored support for Aberdeen oil and gas workers

    Source: United Kingdom – Executive Government & Departments

    Press release

    Tailored support for Aberdeen oil and gas workers

    Around 200 oil and gas workers in Aberdeen and Aberdeenshire will be offered tailored support to seize clean energy job opportunities.

    • Around 200 oil and gas workers in Aberdeen and Aberdeenshire will be offered tailored support and funding to help unleash the North Sea’s clean energy future
    • new skills pilot will support a fair and prosperous transition by giving workers the tools and support to move into the thousands of high-quality jobs being created in growth industries like offshore wind, carbon capture and hydrogen – delivering on UK Government’s Plan for Change
    • backed by £900,000, the pilot will be delivered in partnership between the UK Government, Scottish Government and Skills Development Scotland

    Around 200 Aberdeen oil and gas workers are set to benefit from a tailored skills programme launched today (Wednesday 23 July), which will support them to take advantage of the high-quality job opportunities in Scotland’s growing clean energy sector.   

    The Oil and Gas Transition Training Fund, backed by £900,000 of UK Government funding, will help build the pipeline of skilled workers needed to make Britain a clean energy superpower as part of the government’s Plan for Change. 

    The programme is open to current and former oil and gas workers who live in or are employed in Aberdeen or Aberdeenshire, and are interested in moving into roles within clean energy, to take advantage of the thousands of high-quality jobs being created in the clean energy growth industries of the future.

    Successful applicants will receive careers advice and funding towards training courses – supporting local people into opportunities in sectors such as offshore wind, hydrogen and carbon capture and storage, which could include roles in welding, electrical engineering, and construction.

    This underscores the government’s commitment to unleashing the North Sea’s clean energy future and putting workers, communities, families and trade unions at the heart of a prosperous and sustainable transition for oil and gas.     

    Aberdeen is a key growth region for clean energy and is the headquarters of Great British Energy, alongside a thriving offshore wind and carbon capture industry. It is estimated that the offshore wind sector could support up to 100,000 direct and indirect jobs in Great Britain by 2030, with many jobs expected to be generated in other growth areas.  

    The programme will be delivered in partnership between the UK Government, Scottish Government and Skills Development Scotland. 

    Minister for Energy Michael Shanks said:

    Aberdeen has been the energy capital of Britain for decades and while oil and gas will be with us for decades to come, we are determined to make sure that workers are supported to access the thousands of jobs in industries such as offshore wind and carbon capture.  

    This funding will help deliver a fair and prosperous transition in the North Sea, unlocking the full potential of renewable energy and reaping the economic benefits from the skills and experiences of Aberdeen’s workforce.

    Secretary of State for Scotland Ian Murray said:

    It’s great news that this vital skills training in Aberdeen is now going live. We are absolutely committed to supporting Scotland’s world-class oil and gas workers as we transition to clean energy.  

    This pilot will ensure there is a key role for our offshore workers in delivering our net zero future.

    Cabinet Secretary for Climate Action and Energy Gillian Martin said: 

    The North East of Scotland has long been a titan in the oil and gas industry and the expertise within our workforce must be at the heart of driving a just transition to new fuels and sustainable energy. 

    This new Oil and Gas Transition Training Fund will support offshore workers to take on roles in the sustainable energy sector and has been designed and developed by the Scottish Government, supported by funding from UK Government’s Regional Skills Pilot for Aberdeen and Aberdeenshire, and will be delivered by Skills Development Scotland. 

    Through initiatives such as the Just Transition Fund and the Energy Transition Fund, the Scottish Government has already invested £120 million in the North East’s transition to net zero to help create green jobs, support innovation, and secure the highly skilled workforce of the future.

    Skills Development Scotland Chair Frank Mitchell said:

    Scotland’s oil and gas workforce possesses a broad range of skills and experience which is vital to the continued growth of the renewable energy sector. 

    The shift to sustainable energy generation and transmission represents a generational opportunity, and this funding will assist workers in making the most of their expertise in that growing sector. 

    Our careers advisers are available for anyone who needs support in considering their options, or whether applying for the fund is right for them.

    This builds on previous government action to drive investment and deliver the next generation of good jobs for North Sea workers, including: 

    Oil and gas workers are also benefitting from the Energy Skills Passport, in collaboration with industry and Scottish Government, which helps workers to identify routes into several roles in offshore wind including construction and maintenance. This will also be expanded to include more clean energy sectors over time. 

    The Aberdeen pilot is part of the Department for Energy Security and Net Zero Regional Skills Pilots. Funding has already been given to Cheshire West and Chester, North and North East Lincolnshire and Pembrokeshire to identify skills support that is needed in their area. These areas will be considered for further funding for targeted measures. The Aberdeen pilot did not receive funding as part of Phase 1 of the Regional Skills Pilot as extensive skills mapping for Aberdeen and Aberdeenshire has already been undertaken. 

    Sue Ferns OBE, Senior Deputy General Secretary at Prospect union said:

    This is an important announcement which recognises the vital need for more support for workers transitioning away from carbon-intensive jobs. 

    We will only be able realise the government’s ambitious decarbonisation agenda through investing in the workforce in the energy sector, and the progression of these skills pilots is a welcome signal of intent to better support workers to re-skill. The transition will be different for different workers, so it is welcome that this intervention offers flexibility in what training courses will be funded. 

    As the sector continues with the transition it is vital employers are also held to account for helping their workers gain the necessary skills and training, and unions will be working with the Government to ensure employers step up to the plate and provide further support to transitioning workers.

    Katy Heidenreich, Director of Supply Chain and People at Offshore Energies UK said:

    Aberdeen’s integrated energy workforce has the expertise that’s essential for the offshore energy we need today and for the roll out of renewable energy alongside it.  

    The UK’s energy workers have a proud heritage and hold high value jobs in oil and gas, which the nation needs for decades to come.  

    This world-class expertise is essential for building a low carbon, high growth energy future and it’s critical government and industry work together to secure it.

    Russell Borthwick, Chief Executive at the Aberdeen and Grampian Chamber of Commerce said: 

    The North East of Scotland will be the engine room for the UK’s energy transition. As we pivot from oil and gas to renewables and new technology it’s vital that our workforce is leading that process – not left behind.  

    We welcome investment in the skills needed to unlock the opportunity ahead. Matching these skills with sustainable career paths will depend upon a strong future pipeline of projects, a stable policy landscape and a clear consensus between industry and government on the direction of travel.

    Case study

    Many oil and gas workers have already made the transition. Aishawarya Lakshmanann started as an electrical engineer in oil and gas in Aberdeen, before moving into clean energy and is now working for Ocean Winds on an offshore wind farm. She said: 

    Being able to lead a sustainable life has always been my dream and is what drove me towards the renewables sector.  

    As an engineer I worked in the oil and gas sector from 2018, and it made me rethink how we use our natural energy resources. The UK’s thriving renewable energy sector aligns perfectly with my life and career goals.  

    My transition from oil and gas into renewables has been hugely beneficial for me, allowing me to build a more sustainable life and make a positive impact on the issues we face globally.  

    The idea of creating a carbon neutral world fascinates me as an engineer and working for a major offshore wind company is providing a great place to learn and grow alongside brilliant minds. It’s great to see the funding announcement from UK government to support others to make the transition.

    Notes to editors

    The Aberdeen and Aberdeenshire Regional Skills Pilot was announced in January.

    The Regional Skills Pilot comes from the Office for Clean Energy Skills Fund and has been awarded to the following regions: 

    • North and North East Lincolnshire-Midlands Net Zero Hub hosted by Nottingham City Council 
    • Cheshire West and Chester – North West Net Zero Hub – overseen by Local Enterprise Partnerships and Combined Authorities in the North West 
    • Pembrokeshire – Welsh Government  *Aberdeen and Aberdeenshire- Scottish Government. 

    To be eligible, applicants must be resident or work for an employer in the oil and gas sector with an office in the Aberdeen City or Aberdeenshire area or have worked in the oil and gas sector within the last 2 years. 

    Further information regarding eligibility and how to apply can be found at: Oil and Gas Transition Training Fund.

    Up to 100,000 jobs supported by offshore wind in Great Britain by 2030: This includes direct and indirect jobs. Information on the methodology underpinning this estimate can be found here: Job estimates for wind generation by 2030: methodology note

    North Sea oil and gas production is in natural decline, with a 72% reduction in production occurring between 1999 and 2023, so embracing clean energy is the route to the jobs and investment of the future.  

    This natural decline of oil and gas in the North Sea is already having an impact on jobs and will continue to do so. ONS figures show that direct jobs in oil and gas extraction fell by around a third between 2014 and 2023, despite ongoing domestic licensing and production.

    Updates to this page

    Published 23 July 2025

    MIL OSI United Kingdom

  • MIL-OSI United Kingdom: Pilot to support oil and gas workers in the North East

    Source: Scottish Government

    Oil and Gas Transition Training Fund launched.

    Oil and gas workers in the North East will be able to access tailored support to help them transition into the sustainable energy sector thanks to a new programme launched today. 

    The Oil and Gas Transition Training Fund will enable successful applicants to access careers advice and funding for training to move into sectors such as offshore wind, onshore wind, hydrogen and carbon capture. 

    It is expected to support around 200 oil and gas workers in Aberdeen and Aberdeenshire to build the skills needed to access sustainable energy jobs and has been designed and developed by the Scottish Government, working in partnership with UK Government’s £900,000 Regional Skills Pilot for Aberdeen and Aberdeenshire. The fund will be delivered by Skills Development Scotland and has been supported by an additional £40,000 from the Scottish Government.

    Through initiatives such as the Just Transition Fund and the Energy Transition Fund, the Scottish Government has already invested over £120 million into transitioning the North East to net zero by creating green jobs, supporting innovation, and securing the highly skilled workforce of the future.

    Cabinet Secretary for Climate Action and Energy Gillian Martin said: 

    “The North East has long been a titan in the oil and gas industry and the valuable expertise within our workforce must be at the heart of the transition to new fuels and sustainable energy.

    “This new Oil and Gas Transition Training Fund will support offshore workers to take on roles in the sustainable energy sector and has been designed and developed by the Scottish Government, supported by funding from UK Government’s Regional Skills Pilot for Aberdeen and Aberdeenshire, and will be delivered by Skills Development Scotland.

    “I am determined to ensure a positive impact and powerful legacy of Scotland’s clean energy revolution which benefits communities across the North East of the country.”

    Skills Development Scotland Chair Frank Mitchell said:

    “Scotland’s oil and gas workforce possesses a broad range of skills and experience which is vital to the continued growth of the renewable energy sector.

    “The shift to sustainable energy generation and transmission represents a generational opportunity, and this funding will assist workers in making the most of their expertise in that growing sector.

    “Our careers advisers are available for anyone who needs support in considering their options, or whether applying for the fund is right for them.”

    UK Government Minister for Energy Michael Shanks said:

    “Aberdeen has been the energy capital of Britain for decades and while oil and gas will be with us for decades to come, we are determined to make sure that workers are supported to access the thousands of jobs in industries such as offshore wind and carbon capture.  

    “This funding will help deliver a fair and prosperous transition in the North Sea, unlocking the full potential of renewable energy and reaping the economic benefits from the skills and experiences of Aberdeen’s workforce.” 

    Background 

    Further information on eligibility and how to apply can be found at: https://transitiontrainingfund.scot/

    MIL OSI United Kingdom

  • MIL-OSI United Kingdom: Households given freedom and choice with more ways to cut energy bills

    Source: United Kingdom – Executive Government & Departments

    Press release

    Households given freedom and choice with more ways to cut energy bills

    Government sets out plans for a more flexible electricity system, helping working families save on their bills.

    • More support for consumers to bring down their bills, with new ways to take advantage of off-peak, lower electricity prices if they choose 
    • flexible tariffs and technologies allow consumers to shift energy usage to times when it is cheaper 
    • plans for a more flexible electricity system will ensure families benefit from the government’s clean energy mission and Plan for Change

    Households and businesses will be supported with more options to take control of their energy – expanding freedom and choice as the government drives for clean power.  

    The government’s plans for a more flexible electricity system set out today will help working families save on their bills, by supporting those who want to take advantage of low prices when clean energy is abundant. Consumers will have the opportunity to switch to a flexible tariff and use smart appliances to automatically reap the rewards of cheaper power at non-peak times. 

    Many consumers are already protecting their pockets by varying when they use their electricity. Electric vehicle drivers, for example, could save up to £330 per year by smart charging overnight.  

    More households who want to feel those benefits will be supported through the government’s commitments in the Clean Flexibility Roadmap. These include helping electric vehicle drivers get discounts on their electricity when using public chargers at off-peak times, requiring suppliers to make information on smart tariffs more accessible to consumers, and taking the next steps to help consumers access tailored products and services based on their electricity usage. 

    Supporting more consumers to use electricity at off-peak times will also boost the efficiency and resilience of the electricity network, making up to £70 billion in estimated savings on system costs by 2050.  

    This marks a crucial milestone in ensuring consumers reap the rewards of the government’s mission to make Britain a clean energy superpower, which it is driving forward as part of its Plan for Change.

    Energy Minister Michael Shanks said:

    This roadmap gives households and businesses the choice and control over when and how they use their energy.

    The flexible electricity system we are working to build will help make that a reality for consumers across the country, by supporting them to bring down their bills through using new tariffs and technologies.

    In this way we will protect working people’s pockets and ensure they are the first to benefit from our clean power mission.

    Kayte O’Neill, Chief Operating Officer, NESO, said:  

    The journey towards a decarbonised system will bring opportunities for industry and consumers if we can solve the challenges of using the system flexibly. 

    This roadmap provides clear direction for that, setting out the actions needed to increase flexibility across Great Britain and the rewards it will bring.

    Akshay Kaul Director General for Infrastructure Group, Ofgem, said:

    A more flexible energy market will be a real game changer, giving households more control over what they pay for their energy.   

    Small lifestyle tweaks such as programming a dishwasher or tumble dryer to run overnight when costs are low or charging your electric car during high winds can have a material impact on people’s bills.    

    At Ofgem we’re opening up flexibility markets to bring better tariffs and products to consumers to make cheaper bills a reality.

    Stakeholder reaction

    Sarah Honan, Head of Policy at ADE: Demand, said: 

    Industry demanded a step change in leadership to match our ambition – and this roadmap delivers. A dedicated Flexibility Commissioner aligns squarely with our sector’s blueprint for consumer-led clean power.  

    Now, we must place British homes and businesses at the heart of the system; paying them to flex, not paying gas plants to bail us out. That’s how we lower bills, ditch fossil fuel dependency and make clean power by 2030 real.

    Barnaby Wharton, Director of Future Electricity Systems, RenewableUK, said:  

    A secure, affordable and resilient power system based on renewables needs flexibility at its core, to match times when wind and solar are generating with smart demand. 

    This roadmap puts consumers at the heart of that system, empowering households and businesses to take control of how and when they use electricity, so they can save money by using power when it’s cheapest. 

    By embracing smart tariffs and technologies like EVs, modern heating systems and home batteries, and by accelerating the roll-out of more grid-scale batteries and Long Duration Energy Storage alongside renewables, we can build a more agile system which can shift, adapt and respond to demand faster. Scaling up our capacity to store energy is essential to strengthen the grid and enhance the UK’s energy security.

    Naomi Baker, Senior Policy Manager at Energy UK, said: 

    Energy UK welcomes the roadmap as a positive step towards a smarter, more flexible electricity system that passes the lower cost of renewables through to bill payers. We support the comprehensive scope – from the major new technologies (long duration storage, CCUS and hydrogen) that will ensure system resilience, through to the knotty regulatory barriers that limit market access from consumer assets. 

    The UK is already leading the world in creating an energy system with consumers at the heart of it. Today’s publication builds on this with a market-led approach where customer participation is voluntary, attractive and accessible. A smart flexible system will be a win for bills, a win for British jobs and a win for energy security.

    Kelly Butler, Director of External Affairs at BEAMA, said: 

    As long-standing advocates for accelerating electrification, BEAMA welcomes the publication of the Clean Flexibility Roadmap and a commitment not only to track progress but also focus on practical delivery.

    With appropriate lead times for product development, a technology agnostic approach within electrification and a clear connection across consumer facing policies such as EPCs, we anticipate major supply chain investment to meet the challenge.

    With the oversight of a new Flexibility Commissioner, the roadmap has the potential to help grow the sector, and bring increased momentum to delivering flexibility to consumers and businesses through mass market uptake of Energy Smart Appliances.

    Merlin Hyman OBE, Chief Executive of Regen, said: 

    Making our power system more flexible in how we match supply and demand is a key part of clean power 2030 so we greatly welcome the government’s Clean Flexibility Roadmap.

    The roadmap is an important step to bring together reforms needed to unlock the full value of the rapidly developing grid scale storage sector and consumer led flexibility in a coordinated work programme.

    The challenge now is to deliver what is a significant programme of reform of the way our electricity markets and system work to enable a rapid transition to a clean power system and to deliver value to customers.

    Notes to editors

    In December 2024, the government published its Clean Power 2030 Action Plan, which set out plans for a two to three-fold increase in clean flexibility capacity from 2023 levels, to a range of 51 to 66 GW, by 2030. The Clean Flexibility Roadmap, published today, explains how the government, working with Ofgem and NESO, will deliver that commitment.  

    The first steps that will be taken to support a more flexible electricity system as part of the roadmap include:  

    • appointing a Flexibility Commissioner, who will provide leadership over the policy area 
    • establishing ways of working with NESO and Ofgem to hold government and industry to account for delivery
    • setting up an annual forum to track progress

    Policies being delivered as part of this work include Market-wide Half-Hourly Settlement, which will enable energy usage to be billed every 30 minutes, and the Smart Secure Electricity Systems programme, which aims to help people access consumer-led flexibility. 

    All figures included are based on government analysis unless clearly labelled otherwise.  

    The government has today also published:

    • a consultation on consumer engagement in consumer-led flexibility, which explores how more consumers who want to use energy flexibly can be supported to do so, to help optimise and sustain uptake over the short, medium and long term

    • a call for evidence on improving asset visibility, which seeks views on options for improving how distributed energy assets, like heat pumps and electric vehicle charging points, are registered with distribution network operators (DNOs). This aims to reduce administrative burdens for installers, support flexible use of the assets and prevent network infrastructure from being built unnecessarily

    • a response to the call for evidence on energy smart data, which confirms that the government will continue work to consider whether to introduce a smart data scheme for the energy sector. Smart data is the process of sharing customer data – at the customer’s request – with authorised third parties in a secure way. It will help customers access useful, innovative and personalised products and services that cater to their needs

    Updates to this page

    Published 23 July 2025

    MIL OSI United Kingdom

  • MIL-OSI Africa: Portugal Reaffirms Commitment to Strengthening Strategic Partnership with Morocco

    Source: APO


    .

    The Portuguese Minister of State and Foreign Affairs, Paulo Rangel, praised, on Tuesday in Lisbon, the excellent bilateral ties with the Kingdom of Morocco, reaffirming the mutual will to strengthen the strategic partnership between the two countries, which represents a stellar cooperation model.

    This position was set out in the Joint Statement signed at the end of his meeting with the Minister of Foreign Affairs, African Cooperation and Moroccan Expatriates, Mr. Nasser Bourita.

    On this occasion, MFA Bourita and his Portuguese peer welcomed the excellent bilateral ties which continue to gain new momentum, strengthened in 2024 by the celebrations of the 250th anniversary of the historic Peace and Friendship Agreement signed between the two countries in 1774, and the 30th anniversary of the Friendship, Neighbourhood and Cooperation Treaty, signed in Rabat on May 30, 1994.

    The two ministers stressed the need to work towards implementing the commitments contained in the strategic partnership linking the two countries, endorsed at the 14th session of the High-Level Meeting held in Lisbon in May 2023.

    In this respect, MFA Bourita and Rangel seized the opportunity to underline the economic potential and the means to be deployed to further strengthen cooperation in priority areas, notably green hydrogen, calling for continued joint efforts to install the electricity interconnection project and ensure connectivity, including maritime connectivity, between the two countries.

    The two ministers also welcomed the joint organization by Morocco and Portugal, alongside Spain, of the 2030 Football World Cup, underscoring the momentum that could be unleashed by such a large-scale event in terms of shared prosperity and growth, as well as cultural rapprochement between the two countries.

    Regrading shared objectives and responsibilities, the two leaders undertook to pursue consultations and coordination within international bodies.

    Distributed by APO Group on behalf of Kingdom of Morocco – Ministry of Foreign Affairs, African Cooperation and Moroccan Expatriates.

    MIL OSI Africa

  • MIL-OSI: LanzaTech Awarded Significant Grant by UK Government to Propel Sustainable Aviation Fuel Production

    Source: GlobeNewswire (MIL-OSI)

    LONDON, July 22, 2025 (GLOBE NEWSWIRE) — LanzaTech Global, Inc. (NASDAQ: LNZA) (“LanzaTech” or the “Company”) a leader in carbon management solutions, announced it has received a grant of £6.4 million from the UK government’s Advanced Fuels Fund (AFF), operated by the Department for Transport (DfT).

    The grant will accelerate the development of LanzaTech’s innovative DRAGON 1 & 2 projects, each playing a crucial role in the production of sustainable aviation fuel (SAF) in the UK. Project DRAGON stands for Decarbonizing and Reimagining Aviation for the Goal ONetzero.

    The DRAGON 1 project is LanzaTech’s existing UK SAF project that will convert recycled carbon fuel ethanol (including ethanol from LanzaTech’s gas fermentation process) into Advanced SAF in Port Talbot, South Wales, using the LanzaJet® Alcohol-to-Jet (AtJ) process.

    The DRAGON 2 project is a Power-to-Liquid (PtL) facility that will convert waste carbon dioxide and green hydrogen into ethanol for subsequent conversion into PtL SAF at an adjacent facility using the LanzaJet® Alcohol-to-Jet (AtJ) process. The location for DRAGON 2 in the UK will be determined during this grant-funded project.

    Integrating LanzaTech’s gas fermentation process with LanzaJet’s AtJ technology gives this approach a distinctive edge. By turning regional waste resources into valuable SAF, LanzaTech facilitates the production of low Carbon Intensity (CI) fuels, contributing positively to the UK’s SAF Mandate and supporting economic growth and job creation in industrial zones in the UK.

    “The future of aviation fuel is ethanol-to-SAF and LanzaTech is at the forefront,” said Dr. Jennifer Holmgren, CEO of LanzaTech. “Our commitment to enabling cleaner jet fuel is bolstered by the UK government’s continued support and confidence in LanzaTech as a leader in the sector. This funding not only affirms the value of our unique technology and feedstock approach but also propels our mission to integrate air travel into a circular carbon economy. DRAGON 1 & 2 are set to drive the global SAF market forward and exemplify the UK’s commitment to leading SAF innovation on the global stage.”

    The UK government’s significant investment in these projects underscores their confidence in LanzaTech’s proven, commercial-scale technology and its potential to substantially boost the UK’s SAF production. This endorsement not only solidifies LanzaTech’s reputation as a leader in advancing global clean energy initiatives but also emphasizes the crucial role of feedstock providers. By leveraging low-cost, sustainable inputs for SAF production, LanzaTech is poised to play a key role in aiding the aviation sector’s pursuit of its net-zero commitments.

    Separately, Project Speedbird by LanzaJet, in which LanzaTech holds a 36% ownership stake, also received recognition and £10 million in funding from the Advanced Fuels Fund, further testament to the government’s trust in the Lanza technology portfolio. In 2024, LanzaTech and LanzaJet partnered to create CirculAir™, that transforms nearly any form of waste carbon (including CO2, MSW, agri residues) into SAF, combining the groundbreaking technologies of both companies to provide the aviation industry with a solution to produce waste-based SAF on a global scale.

    Today’s allocation boosts total government contributions through the Advanced Fuels Fund (AFF) to £198 million, aimed at expanding cleaner aviation technologies. This strategic investment is a testament to the UK government’s comprehensive approach to environmental strategies, aligning with initiatives like the recently enacted SAF Mandate. This funding round notably supports a broad spectrum of pathways and feedstocks for SAF production—an inclusive move by the UK government that recognizes the need for varied solutions in the pursuit of net-zero aviation.

    LanzaTech is committed to continuing its collaborative efforts with the UK government, industry partners, and the global community to scale solutions that can transform waste carbon into an opportunity for sustainable growth. We are proud to be recognized as part of the diverse array of solutions required to achieve a sustainable future for aviation.

    About LanzaTech

    LanzaTech Global, Inc. (NASDAQ: LNZA) is a carbon management solutions company that transforms industrial emissions, gasified solid waste and carbon dioxide into recycled carbon ethanol via proprietary bio-fermentation technology. Ethanol is a crucial building block in the world – a key feedstock for Sustainable Aviation Fuel (SAF) and other downstream chemical derivatives. Operating commercially at six assets today, the expanding project pipeline is set to meet growing SAF demand on a global scale in the coming years. LanzaTech’s technology unlocks value across the supply chain, reducing the carbon footprint of hard-to-abate sectors while shepherding recycled carbon fuels and products to the world, building a circular carbon economy.

    Investor Relations
    John Ragozzino
    Lanzatech@icrinc.com

    Public Relations
    Matt Dallas
    Lanzatech@icrinc.com 

    The MIL Network

  • MIL-OSI Africa: South Africa’s Industrial Development Corporation (IDC) to Spotlight Energy, Mining Finance Solutions at African Mining Week (AMW) 2025

    Source: APO – Report:

    .

    Thabiso Sekano, Head of Mining and Metals at the Industrial Development Corporation (IDC) of South Africa, will join African Mining Week (AMW) as a featured speaker on the high-level panel, The Investor Perspective – Financing Africa’s Mineral Industrialization. He is expected to share insights into innovative financing mechanisms that are accelerating project development across Africa’s mining and energy value chains.

    Sekano will highlight the IDC’s instrumental role in advancing South Africa’s mining sector, particularly its platinum group metals (PGMs), which represent over 70% of global reserves. Among the IDC’s recent investments, in June 2025, the agency approved R622 million in funding to Canadian firm Theta Gold Mines to develop multiple sites under the TGME Project in Mpumalanga Province. This seven-year facility is expected to extract 1.24 million ounces of gold, creating jobs and contributing to national revenue growth.

    AMW serves as a premier platform for exploring the full spectrum of mining opportunities across Africa. The event is held alongside the African Energy Week: Invest in African Energies 2025 conference from October 1-3 in Cape Town. Sponsors, exhibitors and delegates can learn more by contacting sales@energycapitalpower.com.

    In April 2025, the IDC approved a further R1.6 billion facility to support the operational stability of ArcelorMittal South Africa, helping preserve jobs and strengthen South Africa’s position as a top global steel producer. Beyond South Africa, Sekano will spotlight the IDC’s growing regional footprint. The corporation is considering a $16 million loan to Giyani Metals to advance the K.Hill manganese project in Botswana – an important development aimed at boosting supply chains for lithium-ion batteries and electric vehicles.

    As African governments increasingly focus on formalizing small-scale mining and empowering junior miners, AMW will also offer a platform for Sekano to discuss the IDC’s initiatives targeting these groups. In 2024, the IDC launched a R400 million Junior Mining Exploration Fund in collaboration with South Africa’s Department of Mineral and Petroleum Resources and the Council for Geoscience, aimed at addressing funding constraints that limit entry and scale-up of junior mining companies.

    In addition, the IDC is driving synergies between the mining and energy sectors to foster energy resilience and decarbonization. In June 2025, it announced that four utility-scale energy projects it financed are now delivering a combined 219 MW to the national grid – powering mining operations and creating 442 annualized jobs. The agency also signed a EUR 17 million agreement with Germany’s KfW to support green hydrogen projects in South Africa, further enhancing the role of PGMs in electrolyzer technology. In March 2025, the IDC raised R2 billion through a sustainable bond issuance to scale up investments across both mining and energy.

    At AMW 2025, Sekano will unpack these developments and more, reinforcing the IDC’s commitment to sustainable, inclusive growth in Africa’s extractive and energy sectors.

    – on behalf of Energy Capital & Power.

    MIL OSI Africa

  • MIL-OSI USA: USGS maps moon for water, supporting NASA mission

    Source: US Geological Survey

    “The USGS and NASA have partnered for over 50 years to leverage space technologies to map the Earth’s resources, and to bring Earth science to bear on space exploration,” said Sarah Ryker, acting USGS director.“As the nation plans to return astronauts to the Moon, the Artemis missions will require resources prohibitive to bring from Earth. Our USGS expertise in assessing resources will help locate ice, which can be purified for drinking, or electrolyzed to make hydrogen and oxygen, key ingredients in rocket fuel.” 

    Since its establishment in 1879, the U.S. Geological Survey has been mapping mineral resources in the U.S. and on Earth, with satellite-based scanning beginning in 1972. Off-planet prospectivity is the latest step in the USGS and NASA’s partnership applying Earth science tools to space. 

    NASA’s planned VIPER, or Volatiles Investigating Polar Exploration Rover, mission will explore volatile-bearing deposits within the loose surface materials near the Moon’s South Pole, specifically around the Mons Mouton landing site. By locating and characterizing these resources, particularly water ice, the mission could reduce the need to transport such materials from Earth, supporting long-term lunar exploration and future space missions.

    “Contributing to the VIPER Science Team helps the USGS test our methods in new settings, with new types of data. This mission represents a bold leap forward in lunar science, and also advances what we do on Earth,” said Joshua Coyan, lead author of the study and a research geologist with the USGS Mineral Resources Program.

    Mapping lunar resources paves the way for uncovering critical supplies on other planetary bodies. On Earth, the USGS maps energy and water resources; on the Moon and other planets, as on Earth, water is a potential energy resource.

    To support the VIPER mission, the USGS Mineral Resources Program partnered with NASA, the University of Hawai’i, and the Search for Extra-Terrestrial Intelligence (SETI) Institute to develop a new astrogeological prospectivity map with the goal of identifying locations with a high likelihood of containing water-ice deposits around the Lunar South Pole.

    “This is the first time Earth-based geostatistical techniques have been adapted to map potential resources on another celestial body,” said Coyan. “By applying proven terrestrial methods in a new planetary context, we’re showing that the tools used to assess mineral potential on Earth can also help identify strategic exploration targets on the Moon and potentially beyond.”

    Studying these potential water ice deposits may also help to shed light onto the origin and distribution of these lunar volatiles, offering a deeper understanding of the Moon’s geologic and thermal evolution.

    The team found that there are several highly prospective areas near the VIPER landing site. Notable locations include the bases of the Jaci, Masina, and Dawa craters, in addition to several smaller clusters of depressions in the surrounding areas.

    3D Map showing prospectivity of water ice volatiles in the Mons Mouton region (Map by Coyan et al., 2025, USGS Mineral Resources Program).

    The prospectivity map was generated using methodologies for uncovering drilling and mining locations. Remote sensing and geophysical data on the lunar poles are relatively scarce, so the team used a “fuzzy logic” artificial intelligence technique to locate areas with high potential for ice based on factors like shade and slope.

    These techniques were designed to improve as new data is collected during the mission, allowing for near-real time refinement of the locations considered prospective for water ice.

    MIL OSI USA News

  • MIL-OSI Africa: Introducing Alvenco Advisory: Guiding Strategic Investment in Namibia’s Energy Future

    Source: APO

    With Namibia set to start oil production by 2029, the country is witnessing a surge in global investments across its exploration and production landscape. From global energy majors to leading independents to regional energy companies and financiers, energy firms are ramping up their investments in what is poised to become the next major African producer. As international investors navigate Namibia’s evolving energy and mining industries, the newly-launched Alvenco Advisory will support companies as they expand their presence across the southern African country.  

    Spearheaded by Namibia’s former-Minister of Mines and Energy Tom Alweendo, Alvenco Advisory represents the partner of choice for global companies seeking to make forays into Namibia. As a strategic advisory firm, Alvenco Advisory is committed to shaping investments that are profitable, inclusive and sustainable. The company will work closely with government stakeholders and global companies, aligning closely with the country’s energy goals by offering policy and regulatory support, strong alignment with national priorities, local stakeholder engagement and ESG focus as well as strategies for shared value and long-term returns. As Namibia embarks on its next chapter of energy development Alvenco Advisory has emerged as a strong partner for global investors.

    The launch of Alvenco Advisory comes as Namibia accelerates the development of offshore oil and gas discoveries made in the Orange Basin. TotalEnergies targets a final investment decision for its Venus discovery in 2026, with first oil expected in 2029. Galp is making progress with the development of the Mopane field following a string of positive results at exploration wells drilled in 2024 and 2025. The latest of these – the Mopane 3S well – revealed the presence of light oil and gas condensate. On the exploration front, Rhino Resources is making strides towards field development following a discovery at the Capricornus-1X well in April 2025 and the confirmation of a hydrocarbon reservoir at the Sagittarius-1X well in February 2025. Halliburton is set to drill two exploration wells at Block 2914 in PEL 85 while Stamper Oil & Gas Corp is also pursuing exploration projects in the Orange and Lüderitz Basins. Chevron is spearheading exploration in the Walvis Basin following its acquisition of an 80% stake in Blocks 2112B and 2212A. These investments seek to unlock a new hydrocarbon province in southern Africa.

    Namibia’s energy transformation comes not only from its oil and gas industry but its bold steps into green hydrogen. The country seeks to reach green hydrogen volumes of between 10-15 million tons per annum by 2050 and is working closely with global partners to achieve this goal. Major projects include the country’s flagship $10 billion flagship Hyphen Hydrogen Energy project – targeting 350,000 tons of green hydrogen annually – and the Daures Green Hydrogen Village – targeting 700,000 tons per annum after 2032. In addition to Hyphen, Namibia is already producing hydrogen from the Hylron Oshivela Project. The project started operations in March 2025, producing green hydrogen using 12 MW of electrolyzer capacity.  Meanwhile, a partnership between the European Union and Namibia – forged in early 2025 – is set to drive up to $12 billion in European private investments into the country in support of its green hydrogen goals. As this investment flows into Namibia, Alvenco Advisory stands ready to support companies as they navigate policy, national priorities and local stakeholder engagement.

    “Namibia is on the cusp of extraordinary change. With major oil discoveries and bold steps into green hydrogen, we have a unique opportunity and responsibility to ensure that our natural resources uplift all Namibians. Alvenco Advisory will not only support global investors in Namibia, but ensure their investments unlock tangible opportunities for the people of Namibia. At Alvenco Advisory, we are committed to driving inclusive and sustainable projects. We are here to align the goals of governments and investing companies – if you’re investing in Namibia or thinking about it let’s talk,” states Alweendo.  

    Alweendo has held various positions in Namibia, including Governor of the Bank of Namibia, Director General of the National Planning Commission and Minister in Charge of the National Planning Commission. In 2018, he was appointed Minister of Mines and Energy. His term ended in 2025. In this role, he oversaw all of the country’s major oil discoveries, and since these milestones, has maintained investor confidence through competitive policies, engagement with international operators and flexible investment structures. This laid the foundation for future growth across the market, setting the country up for continued success in the oil, gas and broader energy sectors.

    To learn more about Alvenco Advisory, visit www.AlvencoAdvisory.com.

    Distributed by APO Group on behalf of African Energy Chamber.

    Media files

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    MIL OSI Africa

  • MIL-OSI Submissions: Microbes in deep-sea volcanoes can help scientists learn about early life on Earth, or even life beyond our planet

    Source: The Conversation – USA – By James F. Holden, Professor of Microbiology, UMass Amherst

    A submersible, which travels to the seafloor to collect rock and microbe samples, is lifted by the arm of a research vessel. James F. Holden

    People have long wondered what life was first like on Earth, and if there is life in our solar system beyond our planet. Scientists have reason to believe that some of the moons in our solar system – like Jupiter’s Europa and Saturn’s Enceladus – may contain deep, salty liquid oceans under an icy shell. Seafloor volcanoes could heat these moons’ oceans and provide the basic chemicals needed for life.

    Similar deep-sea volcanoes found on Earth support microbial life that lives inside solid rock without sunlight and oxygen. Some of these microbes, called thermophiles, live at temperatures hot enough to boil water on the surface. They grow from the chemicals coming out of active volcanoes.

    Because these microorganisms existed before there was photosynthesis or oxygen on Earth, scientists think these deep-sea volcanoes and microbes could resemble the earliest habitats and life on Earth, and beyond.

    To determine if life could exist beyond Earth in these ocean worlds, NASA sent the Cassini spacecraft to orbit Saturn in 1997. The agency has also sent three spacecraft to orbit Jupiter: Galileo in 1989, Juno in 2011 and most recently Europa Clipper in 2024. These spacecraft flew and will fly close to Enceladus and Europa to measure their habitability for life using a suite of instruments.

    A diagram of the interior of Saturn’s moon Enceladus, which may have hot plumes beneath its ocean.
    Surface: NASA/JPL-Caltech/Space Science Institute; interior: LPG-CNRS/U. Nantes/U. Angers. Graphic composition: ESA

    However, for planetary scientists to interpret the data they collect, they need to first understand how similar habitats function and host life on Earth.

    My microbiology laboratory at the University of Massachusetts Amherst studies thermophiles from hot springs at deep-sea volcanoes, also called hydrothermal vents.

    Diving deep for samples of life

    I grew up in Spokane, Washington, and had over an inch of volcanic ash land on my home when Mount St. Helens erupted in 1980. That event led to my fascination with volcanoes.

    Several years later, while studying oceanography in college, I collected samples from Mount St. Helens’ hot springs and studied a thermophile from the site. I later collected samples at hydrothermal vents along an undersea volcanic mountain range hundreds of miles off the coast of Washington and Oregon. I have continued to study these hydrothermal vents and their microbes for nearly four decades.

    Crewed submarines travel deep underwater to collect samples from hydrothermal vents.
    Gavin Eppard, WHOI/Expedition to the Deep Slope/NOAA/OER, CC BY

    Submarine pilots collect the samples my team uses from hydrothermal vents using human-occupied submarines or remotely operated submersibles. These vehicles are lowered into the ocean from research ships where scientists conduct research 24 hours a day, often for weeks at a time.

    The samples collected include rocks and heated hydrothermal fluids that rise from cracks in the seafloor.

    The submarines use mechanical arms to collect the rocks and special sampling pumps and bags to collect the hydrothermal fluids. The submarines usually remain on the seafloor for about a day before returning samples to the surface. They make multiple trips to the seafloor on each expedition.

    Inside the solid rock of the seafloor, hydrothermal fluids as hot at 662 degrees Fahrenheit (350 Celsius) mix with cold seawater in cracks and pores of the rock. The mixture of hydrothermal fluid and seawater creates the ideal temperatures and chemical conditions that thermophiles need to live and grow.

    Plumes rising from hydrothermal vents in the Atlantic Ocean.
    P. Rona / OAR/National Undersea Research Program; NOAA

    When the submarines return to the ship, scientists – including my research team – begin analyzing the chemistry, minerals and organic material like DNA in the collected water and rock samples.

    These samples contain live microbes that we can cultivate, so we grow the microbes we are interested in studying while on the ship. The samples provide a snapshot of how microbes live and grow in their natural environment.

    Thermophiles in the lab

    Back in my laboratory in Amherst, my research team isolates new microbes from the hydrothermal vent samples and grows them under conditions that mimic those they experience in nature. We feed them volcanic chemicals like hydrogen, carbon dioxide, sulfur and iron and measure their ability to produce compounds like methane, hydrogen sulfide and the magnetic mineral magnetite.

    The thermophilic microbe Pyrodictium delaneyi isolated by the Holden lab from a hydrothermal vent in the Pacific Ocean. It grows at 194 degrees Fahrenheit (90 Celsius) on hydrogen, sulfur and iron.
    Lin et al., 2016/The Microbiology Society

    Oxygen is typically deadly for these organisms, so we grow them in synthetic hydrothermal fluid and in sealed tubes or in large bioreactors free of oxygen. This way, we can control the temperature and chemical conditions they need for growth.

    From these experiments, we look for distinguishing chemical signals that these organisms produce which spacecraft or instruments that land on extraterrestrial surfaces could potentially detect.

    We also create computer models that best describe how we think these microbes grow and compete with other organisms in hydrothermal vents. We can apply these models to conditions we think existed on early Earth or on ocean worlds to see how these microbes might fare under those conditions.

    We then analyze the proteins from the thermophiles we collect to understand how these organisms function and adapt to changing environmental conditions. All this information guides our understanding of how life can exist in extreme environments on and beyond Earth.

    Uses for thermophiles in biotechnology

    In addition to providing helpful information to planetary scientists, research on thermophiles provides other benefits as well. Many of the proteins in thermophiles are new to science and useful for biotechnology.

    The best example of this is an enzyme called DNA polymerase, which is used to artificially replicate DNA in the lab by the polymerase chain reaction. The DNA polymerase first used for polymerase chain reaction was purified from the thermophilic bacterium Thermus aquaticus in 1976. This enzyme needs to be heat resistant for the replication technique to work. Everything from genome sequencing to clinical diagnoses, crime solving, genealogy tests and genetic engineering uses DNA polymerase.

    DNA polymerase is an enzyme that plays an essential role in DNA replication. A heat-resistant form from thermophiles is useful in bioengineering.
    Christinelmiller/Wikimedia Commons, CC BY-SA

    My lab and others are exploring how thermophiles can be used to degrade waste and produce commercially useful products. Some of these organisms grow on waste milk from dairy farms and brewery wastewater – materials that cause fish kills and dead zones in ponds and bays. The microbes then produce biohydrogen from the waste – a compound that can be used as an energy source.

    Hydrothermal vents are among the most fascinating and unusual environments on Earth. With them, windows to the first life on Earth and beyond may lie at the bottom of our oceans.

    James F. Holden receives funding from NASA.

    ref. Microbes in deep-sea volcanoes can help scientists learn about early life on Earth, or even life beyond our planet – https://theconversation.com/microbes-in-deep-sea-volcanoes-can-help-scientists-learn-about-early-life-on-earth-or-even-life-beyond-our-planet-260977

    MIL OSI

  • MIL-OSI Submissions: Microbes in deep-sea volcanoes can help scientists learn about early life on Earth, or even life beyond our planet

    Source: The Conversation – USA – By James F. Holden, Professor of Microbiology, UMass Amherst

    A submersible, which travels to the seafloor to collect rock and microbe samples, is lifted by the arm of a research vessel. James F. Holden

    People have long wondered what life was first like on Earth, and if there is life in our solar system beyond our planet. Scientists have reason to believe that some of the moons in our solar system – like Jupiter’s Europa and Saturn’s Enceladus – may contain deep, salty liquid oceans under an icy shell. Seafloor volcanoes could heat these moons’ oceans and provide the basic chemicals needed for life.

    Similar deep-sea volcanoes found on Earth support microbial life that lives inside solid rock without sunlight and oxygen. Some of these microbes, called thermophiles, live at temperatures hot enough to boil water on the surface. They grow from the chemicals coming out of active volcanoes.

    Because these microorganisms existed before there was photosynthesis or oxygen on Earth, scientists think these deep-sea volcanoes and microbes could resemble the earliest habitats and life on Earth, and beyond.

    To determine if life could exist beyond Earth in these ocean worlds, NASA sent the Cassini spacecraft to orbit Saturn in 1997. The agency has also sent three spacecraft to orbit Jupiter: Galileo in 1989, Juno in 2011 and most recently Europa Clipper in 2024. These spacecraft flew and will fly close to Enceladus and Europa to measure their habitability for life using a suite of instruments.

    A diagram of the interior of Saturn’s moon Enceladus, which may have hot plumes beneath its ocean.
    Surface: NASA/JPL-Caltech/Space Science Institute; interior: LPG-CNRS/U. Nantes/U. Angers. Graphic composition: ESA

    However, for planetary scientists to interpret the data they collect, they need to first understand how similar habitats function and host life on Earth.

    My microbiology laboratory at the University of Massachusetts Amherst studies thermophiles from hot springs at deep-sea volcanoes, also called hydrothermal vents.

    Diving deep for samples of life

    I grew up in Spokane, Washington, and had over an inch of volcanic ash land on my home when Mount St. Helens erupted in 1980. That event led to my fascination with volcanoes.

    Several years later, while studying oceanography in college, I collected samples from Mount St. Helens’ hot springs and studied a thermophile from the site. I later collected samples at hydrothermal vents along an undersea volcanic mountain range hundreds of miles off the coast of Washington and Oregon. I have continued to study these hydrothermal vents and their microbes for nearly four decades.

    Crewed submarines travel deep underwater to collect samples from hydrothermal vents.
    Gavin Eppard, WHOI/Expedition to the Deep Slope/NOAA/OER, CC BY

    Submarine pilots collect the samples my team uses from hydrothermal vents using human-occupied submarines or remotely operated submersibles. These vehicles are lowered into the ocean from research ships where scientists conduct research 24 hours a day, often for weeks at a time.

    The samples collected include rocks and heated hydrothermal fluids that rise from cracks in the seafloor.

    The submarines use mechanical arms to collect the rocks and special sampling pumps and bags to collect the hydrothermal fluids. The submarines usually remain on the seafloor for about a day before returning samples to the surface. They make multiple trips to the seafloor on each expedition.

    Inside the solid rock of the seafloor, hydrothermal fluids as hot at 662 degrees Fahrenheit (350 Celsius) mix with cold seawater in cracks and pores of the rock. The mixture of hydrothermal fluid and seawater creates the ideal temperatures and chemical conditions that thermophiles need to live and grow.

    Plumes rising from hydrothermal vents in the Atlantic Ocean.
    P. Rona / OAR/National Undersea Research Program; NOAA

    When the submarines return to the ship, scientists – including my research team – begin analyzing the chemistry, minerals and organic material like DNA in the collected water and rock samples.

    These samples contain live microbes that we can cultivate, so we grow the microbes we are interested in studying while on the ship. The samples provide a snapshot of how microbes live and grow in their natural environment.

    Thermophiles in the lab

    Back in my laboratory in Amherst, my research team isolates new microbes from the hydrothermal vent samples and grows them under conditions that mimic those they experience in nature. We feed them volcanic chemicals like hydrogen, carbon dioxide, sulfur and iron and measure their ability to produce compounds like methane, hydrogen sulfide and the magnetic mineral magnetite.

    The thermophilic microbe Pyrodictium delaneyi isolated by the Holden lab from a hydrothermal vent in the Pacific Ocean. It grows at 194 degrees Fahrenheit (90 Celsius) on hydrogen, sulfur and iron.
    Lin et al., 2016/The Microbiology Society

    Oxygen is typically deadly for these organisms, so we grow them in synthetic hydrothermal fluid and in sealed tubes or in large bioreactors free of oxygen. This way, we can control the temperature and chemical conditions they need for growth.

    From these experiments, we look for distinguishing chemical signals that these organisms produce which spacecraft or instruments that land on extraterrestrial surfaces could potentially detect.

    We also create computer models that best describe how we think these microbes grow and compete with other organisms in hydrothermal vents. We can apply these models to conditions we think existed on early Earth or on ocean worlds to see how these microbes might fare under those conditions.

    We then analyze the proteins from the thermophiles we collect to understand how these organisms function and adapt to changing environmental conditions. All this information guides our understanding of how life can exist in extreme environments on and beyond Earth.

    Uses for thermophiles in biotechnology

    In addition to providing helpful information to planetary scientists, research on thermophiles provides other benefits as well. Many of the proteins in thermophiles are new to science and useful for biotechnology.

    The best example of this is an enzyme called DNA polymerase, which is used to artificially replicate DNA in the lab by the polymerase chain reaction. The DNA polymerase first used for polymerase chain reaction was purified from the thermophilic bacterium Thermus aquaticus in 1976. This enzyme needs to be heat resistant for the replication technique to work. Everything from genome sequencing to clinical diagnoses, crime solving, genealogy tests and genetic engineering uses DNA polymerase.

    DNA polymerase is an enzyme that plays an essential role in DNA replication. A heat-resistant form from thermophiles is useful in bioengineering.
    Christinelmiller/Wikimedia Commons, CC BY-SA

    My lab and others are exploring how thermophiles can be used to degrade waste and produce commercially useful products. Some of these organisms grow on waste milk from dairy farms and brewery wastewater – materials that cause fish kills and dead zones in ponds and bays. The microbes then produce biohydrogen from the waste – a compound that can be used as an energy source.

    Hydrothermal vents are among the most fascinating and unusual environments on Earth. With them, windows to the first life on Earth and beyond may lie at the bottom of our oceans.

    James F. Holden receives funding from NASA.

    ref. Microbes in deep-sea volcanoes can help scientists learn about early life on Earth, or even life beyond our planet – https://theconversation.com/microbes-in-deep-sea-volcanoes-can-help-scientists-learn-about-early-life-on-earth-or-even-life-beyond-our-planet-260977

    MIL OSI

  • MIL-OSI China: Zoom in on 3rd CISCE from three perspectives

    Source: People’s Republic of China – State Council News

    The third China International Supply Chain Expo (CISCE), which concluded on Sunday in Beijing, has reinforced its role as a vital platform for promoting resilient, diversified and cooperative global supply chains, with a promising increase in international collaborations.

    With over 6,000 cooperation agreements and partnership intents reached this year, the world’s first national-level exhibition dedicated to supply chains is steadily transforming the global supply network into a chain of shared benefits for all.

    “This event is much more than an expo. It is a forest of connections between economies, industries and people,” John Denton, the secretary-general of the International Chamber of Commerce, said at the opening ceremony. “We are here together to advance our shared prosperity.”

    Innovation

    After three editions, CISCE has built a reputation as a hub of technological innovation in supply chain and a striking showcase for China’s new quality productive forces.

    “Innovation is the defining feature of CISCE and the source of its vitality,” said Yu Jianlong, the vice chairman of the China Council for the Promotion of International Trade (CCPIT), organizer of the expo.

    This year’s expo showcased an array of standout technologies, including a humanoid robot equipped with Nvidia chips, an AI-supported car paint defect inspection system, and a hydrogen energy supply chain display based on liquid hydrogen technology.

    Beyond the high-tech products dazzling eager audiences, this edition of the expo also spotlighted a deeper question: how to transform technological achievements into powerful drivers of industrial development.

    This year’s CISCE featured, for the first time, a dedicated innovation chain zone. Though modest in size, the zone brings together a diverse range of 14 participating institutions, including the World Intellectual Property Organization and the China National Intellectual Property Administration. These exhibitors represent key players across various stages of science and technology commercialization, ranging from policy-making and technology transfer to innovation incubation, and provide targeted solutions to critical challenges in transforming technological achievements.

    “Here in China, people are so advanced. The technology adoption is so fast,” said Jensen Huang, Nvidia CEO, during an interview on the sidelines of the expo, citing many examples of how China’s innovative applications are setting global trends — with companies worldwide learning from its practices.

    Cooperation

    As an international expo shared by the world, the CISCE continues to promote inclusive and mutually beneficial cooperation globally. Through the expo, an increasing number of international participants are aligning with the world’s most comprehensive supply chain while keeping pace with its rapid development.

    According to the data from CCPIT, the expo has seen a steady rise in international participation. The proportion of overseas exhibitors has grown from 26 percent in the first edition to 32 percent in the second, and reached 35 percent this year. Over 65 percent of the exhibitors are Fortune Global 500 companies or industry leaders. Meanwhile, the geographic reach of participants has expanded from 55 countries and regions in the inaugural expo to 75 in the latest edition.

    Major multinational companies have utilized CISCE to strengthen local partnerships and expand their presence in China. “Over the past three years at CISCE, we’ve showcased progress alongside our suppliers in smart manufacturing, green manufacturing and talent development,” Isabel Ge Mahe, Apple’s vice president and managing director of Greater China, told Xinhua.

    She highlighted Apple’s 20 billion U.S. dollars investment in China over the past five years, primarily focused on innovation and supply chain advancements, and praised China’s dynamic innovation ecosystem and sophisticated smart supply chains. “We are deeply rooted here, incredibly proud of the supply chain we helped build, and will continue to invest and innovate with our local partners.”

    Domestic provinces also used the expo to court supply-chain partners. At a side event, southwest China’s Sichuan Province drew foreign giants with its complete industrial chain, pro-business climate and huge market.

    “We entered China more than 40 years ago and we’re still expanding,” said Utsugi Yuyama, executive officer of Japanese material manufacturer AGC Inc. The company already runs chemical and electronic lines in Sichuan and plans more. He hailed the province’s talent pool and comprehensive industrial chain, where local and foreign enterprises integrate to drive growth.

    Greener supply chain

    Green development has increasingly become the foundation and highlight of the expo. How to promote green and low-carbon development across industrial and supply chains has become a notable question at the expo, and an increasing number of major enterprises in their supply chain are stepping up with innovative solutions.

    “Green standards, including carbon tracking and sustainability metrics, are becoming essential across industries,” said Zhou Xing, head of public affairs at PwC China, who identified green transformation as one of the four key trends shaping the current global supply chain restructuring.

    At this year’s expo, multinational companies such as Schneider Electric made their debut, showcasing digital solutions for sustainable supply chain construction. The company is working to establish an efficient and resilient green supply chain that can respond swiftly to market shifts.

    “The supply chain expo provides an important platform for global enterprises, especially in green supply chain construction,” said Yin Zheng, executive vice-president of Schneider Electric and president of its China and East Asia operations. Yin added that Schneider Electric hopes to share its experience and seek more cooperation opportunities through the event.

    Returning to CISCE for the third consecutive year, Starbucks China spotlighted a comprehensive look at the “green path” from coffee bean to brewed cup. According to the company, around 30 percent of its total carbon emissions in China stem directly or indirectly from its own operations, while the remaining 70 percent originate upstream, from sectors like dairy production and logistics.

    To tackle this challenge, Starbucks China announced a strategic partnership with Envision Group, a leading green tech company, at this year’s expo. Over the next three years, the two sides will work together to roll out a digital carbon management platform aimed at gradually covering 100 percent of Starbucks China’s direct suppliers. 

    MIL OSI China News

  • MIL-OSI Africa: International Energy Forum (IEF) Secretary General Joins African Energy Week (AEW) 2025 Amid Forecasts Global Energy Growth

    Source: APO – Report:

    Jassim Alshirawi, Secretary General of intergovernmental organization the International Energy Forum (IEF), has joined the African Energy Week (AEW): Invest in African Energies conference as a speaker. As the world’s largest gathering of energy ministers, the IEF accounts for more than 90% of global oil and gas supply, and as such, Alshirawi is well-positioned to lead discussions around Africa’s oil market, including trends, opportunities and challenges.

    Representing the global home of energy dialogue, the IEF focuses on energy security, data transparency and energy transition, uniting global energy ministers and stakeholders to advance global supply chains. Founded more than 30 years ago, the organization facilitates discussions between producing and consuming countries, offering a neutral and inclusive platform to address supply chain challenges. Alshirawi’s participation at AEW: Invest in African Energies 2025 – Africa’s largest energy event – is expected to further strengthen these discussions as Africa’s role in global energy markets increasingly grows.

    AEW: Invest in African Energies is the platform of choice for project operators, financiers, technology providers and government, and has emerged as the official place to sign deals in African energy. Visit www.AECWeek.com for more information about this exciting event.

    Alshirawi’s participation comes as Africa moves to promote Africa-centric energy policies, ones that center around the continent’s need to scale-up energy capacity while advancing a just energy transition. Given that over 600 million people currently lack access to electricity across the continent while 900 million people lack access to clean cooking solutions, many countries are advocating for a differentiated approach to the energy transition in Africa, one that prioritizes the development of low-carbon oil and gas. Organizations such as the IEF are uniquely positioned to facilitate energy dialogue, thereby enhancing a better understanding of Africa’s energy dynamics.

    Beyond energy dialogue, the IEF provides a series of reports and data analysis, with insights supporting investments and decision-making by leading operators and financiers. In the IEF’s latest Comparative Analysis of Monthly Reports on the Oil Market, the organization offers a comparison of forecasted market trends by major organizations such as OPEC and the International Energy Agency (IEA). In its comparison, the IEF outlines that OPEC predictions show global oil demand rising 1.3 million barrels per day (bpd) in 2025, driven predominantly by increased consumption of transportation fuels. The 2026 forecast will see demand rise by a further 1.3 million bpd, sustained by rising demand for mobility and petrochemicals feedstocks. At the same time, the IEA projects global oil demand to rise by 0.7 million bpd in 2025 and 720,000 bpd in 2026. These discrepancies underscore the need to connect under one platform, with AEW: Invest in African Energies 2025 emerging as a strategic forum in this regard.

    AEW: Invest in African Energies unites stakeholders from the global and African energy landscapes to discuss strategies for accelerating investment and development in pursuit of enhanced energy security. As a continent rich with a variety of natural resources and offering significant untapped opportunities, Africa is well-positioned to play a more central role in global supply chains. Established markets such as Angola, Nigeria, the Republic of Congo and Libya are rapidly increasing oil and gas production, targeting new exploration frontiers and incremental production projects. Concurrently, emerging markets such as Namibia, Uganda, Ivory Coast, South Africa and Zimbabwe are all driving frontier exploration, with the aim of establishing themselves as future producers. In tandem with advancements in clean energy developments – from large-scale green hydrogen to integrated solar and wind – Africa offers significant opportunities across its entire energy sector and value chain.

    Stepping into this picture, Alshirawi’s participation at AEW: Invest in African Energies 2025 will strengthen Africa-global dialogue. His participation will not only seek to address challenges and opportunities across the global energy market but foster discussions around Africa’s unique strategy to scale-up energy and advance its transition.

    “As Africa’s energy sector experiences rapid growth, a unique opportunity has emerged for operators, financiers and technology providers to capitalize on global demand and position the continent as a major supplier. Insights shared by the IEF have long-played an important part in de-risking investments in Africa and will continue supporting developments as companies unlock the full potential of the continent’s energy resources,” states NJ Ayuk, Executive Chairman, African Energy Chamber.

    – on behalf of African Energy Chamber.

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    MIL OSI Africa

  • MIL-OSI Russia: The government has expanded the list of modern technologies for concluding special investment contracts

    Translation. Region: Russian Federal

    Source: Government of the Russian Federation – Government of the Russian Federation –

    An important disclaimer is at the bottom of this article.

    The list of modern technologies, during the development or implementation of which companies can conclude special investment contracts with the state (SPIC 2.0), has been expanded by another 21 items. The order to supplement the existing list was signed by Prime Minister Mikhail Mishustin.

    The updated list includes technologies that can be used in medicine, the chemical and food industries, agriculture, energy, and construction.

    These technologies include new methods for producing hydrogen, ammonia, nitric acid, granulated urea, building materials, new generation feed enzyme preparations, bread and bakery products with an extended shelf life, vegetable oil and other products.

    Commenting on the signed documentGovernment meeting on July 17, Mikhail Mishustin emphasized that it will attract additional private investment in priority areas, and will also help develop the production of products that are critically important for the country.

    In a new format, the special investment contract mechanism has been in effect since the end of 2020. It allows attracting large private capital investments in the development of innovative solutions and the creation of high-tech production facilities for the production of competitive domestic products.

    Within the framework of the SPIC mechanism, the investor undertakes to implement an investment project for the introduction or development and introduction of modern technology for the development of serial production of industrial products on the territory of Russia within the timeframes specified in the contract.

    The state, for its part, guarantees such an investor favorable, clear and unchangeable conditions for investments, including tax benefits and special conditions for land lease without tenders. Contracts are concluded for a period of up to 15 years if investments in the project do not exceed 50 billion rubles. For a larger amount, the period of the agreement may be extended to 20 years.

    The document will be published.

    Please note: This information is raw content obtained directly from the source of the information. It is an accurate report of what the source claims and does not necessarily reflect the position of MIL-OSI or its clients.

    .

    MIL OSI Russia News

  • MIL-OSI China: Tag along with Jay at CISCE: How wind and solar are powering a zero-carbon future?

    Source: People’s Republic of China – State Council News

    Diamonds can be made from green hydrogen? The solar-powered parasols can charge your phone? Wind turbines resemble Chinese stilt walkers? British host Jay Ian Birbeck explores the clean energy cycle at the third China International Supply Chain Expo. From Chinese innovation to global collaboration, the expo presents not only the entire clean energy chain but also cooperation and shared success in tackling climate change!

    MIL OSI China News

  • MIL-OSI USA: Stay Cool: NASA Tests Innovative Technique for Super Cold Fuel Storage

    Source: NASA

    In the vacuum of space, where temperatures can plunge to minus 455 degrees Fahrenheit, it might seem like keeping things cold would be easy. But the reality is more complex for preserving ultra-cold fluid propellants – or fuel – that can easily overheat from onboard systems, solar radiation, and spacecraft exhaust. The solution is a method called cryogenic fluid management, a suite of technologies that stores, transfers, and measures super cold fluids for the surface of the Moon, Mars, and future long-duration spaceflight missions.
    Super cold, or cryogenic, fluids like liquid hydrogen and liquid oxygen are the most common propellants for space exploration. Despite its chilling environment, space has a “hot” effect on these propellants because of their low boiling points – about minus 424 degrees Fahrenheit for liquid hydrogen and about minus 298 for liquid oxygen – putting them at risk of boiloff.
    In a first-of-its-kind demonstration, teams at NASA’s Marshall Space Flight Center in Huntsville, Alabama, are testing an innovative approach to achieve zero boiloff storage of liquid hydrogen using two stages of active cooling which could prevent the loss of valuable propellant.
    “Technologies for reducing propellant loss must be implemented for successful long-duration missions to deep space like the Moon and Mars,” said Kathy Henkel, acting manager of NASA’s Cryogenic Fluid Management Portfolio Project, based at NASA Marshall. “Two-stage cooling prevents propellant loss and successfully allows for long-term storage of propellants whether in transit or on the surface of a planetary body.”
    The new technique, known as “tube on tank” cooling, integrates two cryocoolers, or cooling devices, to keep propellant cold and thwart multiple heat sources. Helium, chilled to about minus 424 degrees Fahrenheit, circulates through tubes attached to the outer wall of the propellant tank.

    Teams installed the propellant tank in a test stand at NASA Marshall in early June, and the 90-day test campaign is scheduled to conclude in September. The tank is wrapped in a multi-layer insulation blanket that includes a thin aluminum heat shield fitted between layers. A second set of tubes, carrying helium at about minus 298 Fahrenheit, is integrated into the shield. This intermediate cooling layer intercepts and rejects incoming heat before it reaches the tank, easing the heat load on the tube-on-tank system.
    To prevent dangerous pressure buildup in the propellant tank in current spaceflight systems, boiloff vapors must be vented, resulting in the loss of valuable fuel. Eliminating such propellant losses is crucial to the success of NASA’s most ambitious missions, including future crewed journeys to Mars, which will require storing large amounts of cryogenic propellant in space for months or even years. So far, cryogenic fuels have only been used for missions lasting less than a week.  
    “To go to Mars and have a sustainable presence, you need to preserve cryogens for use as rocket or lander return propellant,” Henkel said. “Rockets currently control their propellant through margin, where larger tanks are designed to hold more propellant than what is needed for a mission. Propellant loss isn’t an issue with short trips because the loss is factored into this margin. But, human exploration missions to Mars or longer stays at the Moon will require a different approach because of the very large tanks that would be needed.”
    The Cryogenic Fluid Management Portfolio Project is a cross-agency team based at NASA Marshall and the agency’s Glenn Research Center in Cleveland. The cryogenic portfolio’s work is under NASA’s Technology Demonstration Missions Program, part of NASA’s Space Technology Mission Directorate, and is comprised of more than 20 individual technology development activities.
    Learn more about cryogenic fluid management:
    https://go.nasa.gov/cfm

    MIL OSI USA News

  • MIL-OSI USA: Tax credits drive carbon capture deployment in our Annual Energy Outlook

    Source: US Energy Information Administration

    In-brief analysis

    July 18, 2025

    Data source: U.S. Energy Information Administration, Annual Energy Outlook 2025 (AEO2025)


    In our recently published Annual Energy Outlook 2025 (AEO2025), we introduce our new Carbon Capture, Allocation, Transportation, and Sequestration module (CCATS), which allows us to model carbon capture in the coming decades.

    The CCATS module allocates projected supply of captured CO2 across the energy system for either enhanced oil recovery or geologic storage using a network representation of capture facilities, transshipment points, and sequestration sites.

    In AEO2025, we project CO2 capture at electric power and industrial facilities will increase through the 2030s, primarily due to increased tax credit values. Captured emissions peak at 1.5%–3.5% of energy emissions in the late 2030s in most cases.

    In most of our cases, we considered laws and regulations in place as of December 2024, which meant including tax credit values implemented under the 2022 Inflation Reduction Act (IRA). We did not include changes in the recent One Big Beautiful Bill Act (OBBBA), which essentially preserved tax credits for carbon capture but made them more generous in the case of utilization.

    Under the IRA, developers could claim the tax credits, known as 45Q, for projects that begin construction before January 1, 2033, for up to 12 years once placed in service. The 12-year period will end between the late 2030s through the mid-2040s. We project CO2 capture will decrease as the tax credits expire through 2050 across all AEO2025 cases.

    How do CO2 capture rates look through 2050?
    Projected peak CO2 capture amounts vary by AEO2025 case. In the Reference case, CO2 capture peaks at just under 71 million metric tons (MMmt) in 2039, or about 2% of overall energy emissions. Projected peak captured emissions are lowest in the Alternative Electricity case, at 56 MMmt in 2037, and highest in the High Oil Price case, at 122 MMmt in 2039.

    Our Alternative Electricity case has less carbon capture activity because it does not model Clean Air Act 111 regulations implemented in 2024, which effectively require carbon capture for coal and natural gas power plants. The U.S. Environmental Protection Agency recently proposed to repeal the rule.

    Data source: U.S. Energy Information Administration, Annual Energy Outlook 2025
    Note: ZTC= Zero-Carbon Technology Cost


    Historically, most CO2 capture has occurred at ethanol and natural gas processing plants. We project CO2 capture at coal power plants, natural gas power plants, and hydrogen facilities to surpass these industries across many of the AEO2025 cases. In addition, we project that no bioenergy with carbon capture and storage is deployed in any of our cases, and CO2 capture at cement facilities remains small—between 1 MMmt and 2.5 MMmt in 2035.

    How will CO2 be sequestered?
    We modeled CO2 sequestered in saline storage—deep underground formations containing saltwater—and injected into oil fields to increase output, a process known as enhanced oil recovery (EOR). The 45Q tax credit under the IRA was $60 per metric ton of CO2 for EOR and $85 per metric ton for saline storage. The recently passed OBBBA increased the value of the credit for EOR to $85 per metric ton, but the new value is not included in our analysis.

    In all our cases, we project captured CO2 sent to saline storage will increase through the mid- to late-2030s. In the Reference case, we project CO2 sequestered in saline storage will increase from essentially none in 2024 to 52 MMmt in 2040. Less CO2 is sequestered in saline formations after 2041 as the 45Q tax credits expire because we do not model other sources of revenue.

    We project CO2 sequestered for EOR sites will increase in the Reference case from 12 MMmt of CO2 in 2024 to 26 MMmt of CO2 in 2044. The amount of CO2 sequestered at EOR sites through the projection period stays relatively steady because revenue from increased oil production supports the projects even after 45Q tax credits expire.

    What portion of emissions is captured and sequestered?

    Data source: U.S. Energy Information Administration, Annual Energy Outlook 2025


    CO2 capture remains small relative to overall energy emissions across AEO2025 cases. We project that for the electric power sector, gross emissions decline in all cases while CO2 capture increases. Peak CO2 capture in the electric power sector ranges from 2.8% to 15.6% of sector emissions, depending on the AEO2025 case. In the industrial sector, we project that gross CO2 emissions increase in most cases and captured CO2 emissions remain low. Peak CO2 capture ranges from 2.6% to 3.9% of industrial sector emissions in our projections.

    Previous Today in Energy articles for the AEO2025 presented key findings on crude oil and natural gas exports, energy consumption growth, and electricity use for commercial computing.

    Principal contributors: Will Sommer, Jeff Bennett, Kendyl Partridge, Anna Cororaton

    MIL OSI USA News

  • MIL-OSI Africa: South Africa Ramps Up Energy Investment Drive with Dedicated Roundtable at African Energy Week (AEW) 2025

    Source: APO

    South Africa is positioning itself as a premier investment destination in Africa’s energy transition, with a strategic push across the entire energy value chain – from oil and gas exploration to renewables and green hydrogen. At African Energy Week (AEW) 2025: Invest in African Energies, an “Invest in South Africa” Roundtable will bring together top-tier investors, policymakers and energy executives to spotlight the country’s evolving regulatory landscape, its new national oil company and a host of bankable infrastructure projects.

    This year’s roundtable brings together a powerful lineup of speakers driving South Africa’s energy future, including Shahrukh Mirza, VP LNG Development at ExxonMobil, Stefano Marani, CEO of Renergen Limited, and senior representatives from both the newly formed South African National Petroleum Company (SANPC) and the South African National Energy Development Institute.

    South Africa’s energy sector is undergoing a critical transformation: years of load-shedding and grid instability has prompted bold reforms aimed at liberalizing the energy market, fast-tracking private-sector participation and diversifying supply sources. As the government unbundles Eskom and opens transmission infrastructure to independent power producers, investor interest in South Africa’s power and gas markets is growing sharply. Meanwhile, the Integrated Resource Plan and Renewable Energy Masterplan are paving the way for expanded solar, wind and battery storage deployment, backed by robust public-private collaboration.

    The upstream oil and gas sector is also entering a pivotal new phase. The recently established SANPC is spearheading fresh exploration efforts and opening up acreage across frontier basins, including the Orange Basin – an area that has drawn renewed interest following a string of offshore discoveries in neighboring Namibia. Energy major Shell has secured approval for a five-well drilling campaign in the Northern Cape Ultra Deep block, while TotalEnergies is targeting a two-well wildcat campaign in South Africa’s portion of the Orange Basin, slated for 2026. With upcoming licensing opportunities, transparent fiscal terms and enhanced data packages, South Africa is well-positioned to attract both new market entrants and experienced independents to its upstream sector.

    In its gas monetization strategy, South Africa is advancing efforts to leverage domestic resources – including those under development by Renergen at the Virginia Gas Project – to support helium exports and the production of LNG for transport and industrial fuel use. The country’s Gas Master Plan, currently under review, sets out a roadmap for critical infrastructure, including LNG terminals, pipeline expansions and strategic gas storage, aimed at enhancing long-term energy security. At the same time, public-private initiatives such as the green hydrogen corridor – linking the Northern Cape to key export hubs – are laying the groundwork for large-scale hydrogen production, backed by the region’s exceptional solar and wind potential.

    “As South Africa retools its regulatory environment and builds momentum behind energy diversification, AEW 2025 stands as the ideal venue to connect capital with opportunity. From the Orange Basin’s high-impact prospects to scalable renewables and gas monetization, the country is open for business,” says Oré Onegbesan, Program Director, AEW.

    Distributed by APO Group on behalf of African Energy Chamber.

    AEW: Invest in African Energies:
    AEW: Invest in African Energies is the platform of choice for project operators, financiers, technology providers and government, and has emerged as the official place to sign deals in African energy. Visit www.AECWeek.com for more information about this exciting event.

    Media files

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    MIL OSI Africa

  • MIL-OSI USA: Ranking Member Marcy Kaptur Statement at the Full Committee Markup of the 2026 Energy and Water Development Funding Bill

    Source: United States House of Representatives – Congresswoman Marcy Kaptur (OH-09)

    Washington, DC — Congresswoman Marcy Kaptur (D-OH-09), Ranking Member of the Energy and Water Development, and Related Agencies Appropriations Subcommittee, delivered the following remarks at the full committee’s markup of its fiscal year 2026 bill:

    Thank you very much, Chairman Cole. Ranking Member DeLauro, my dear friend, Chair Fleischmann and all the members as we gather today to mark up this Fiscal Year 2026 Energy and Water Development Bill. I have to restate, Chairman Fleischmann, I have truly appreciated working with you. You are always open to suggestions and, to all of our colleagues on this subcommittee that is a very, bipartisan subcommittee to develop and pass these bills, and our committee has long had this practice. We affect every single Congressional District in this country.

    I’m truly saddened that this vital subcommittee is, being steered yet again to return to a partisan process not caused by our subcommittee, but as we move forward with this Fiscal Year 2026 House bill.

    I would like to begin by thanking our diligent staff for all their hard work on this bill from the minority staff Scott McKee, Anisha Singh, and Adam Wilson, and on our personal staff, Kaitlin Ulin, TJ Lowdermilk, and Margaret McInnis. Truly thank you to you all.

    Engineered energy and water systems undergird America’s way of life. They are not optional, but essential to sustaining life. Of late, we have been piercingly reminded about our subcommittee’s purpose, especially as related to water management by the extreme flash flooding and tragic loss of over 132 lives, and with over 101 missing, in the Guadalupe River catchment area in Texas.

    The deadly West Virginia flash flooding this past month significantly damaged over 100 homes. Unfortunately, taking the lives of at least nine people, including a three year old, in Valley Grove, West Virginia. And we’ve seen flooding events in central North Carolina and New Mexico. All our hearts go out to the families of the victims and their communities. These tragedies inform us of the power of water and wild energy in our atmosphere. Not because of cloud seeding, but because of nature’s awesome power generated inside the thin seven layer atmosphere surrounding our spinning and rotating earth. Let me be clear. No matter how much members on the other side of the aisle want to pretend that the climate isn’t changing, for the record, the last ten years are the ten hottest in recorded history.

    So many have been held up on their plane flights back here. It’s an unusual change in the weather across this country, and members are personally experiencing these delays, as are the American people. These recent floods are made worse by the heating atmosphere. We had four 1,000 year floods last week alone. That is a record.

    So far in July, our country has seen over 1,200 flooding events, more than double the normal for an average July, and we’re just halfway through the month. Constitutionally, it is our sworn duty to prepare and protect the people in our communities, and it is hard to accept that no warning sirens had been installed along the Guadalupe River, despite prior tragedies along that very treacherous corridor. Our nation needs to install warning systems and build resilient infrastructure, and we are behind.

    For example, in a district like mine, we had to bring funding for tornado sirens many years ago. I was shocked that they didn’t exist. And in Ohio, we do zone to prevent flooding from threatening human life. But many places in our country do not, and we cannot keep bailing out places that are irresponsible in their behavior. My home in the City of Toledo has gone into Billions of dollars of debt to build new sewers, along with gigantic underground catchment basins, some as large as two football fields in size, in order to handle increasing water loads.

    We are making investments all over our district to protect Lake Erie shoreline and its tributaries. But in places where infrastructure investments aren’t cost effective, how does our nation make sure that families will be protected with adequate local planning and disaster warning systems? America needs more rigor in land and water planning systems, and my friends, quite frankly, we as a nation don’t get a grade A on that.

    It is our awesome responsibility as public servants to address the structural shortcomings at the federal, state, and local level that contributed to the recent loss of life. Sadly, this Republican energy and water bill does not meet our nation’s imperative for the future. It’s over $700 Million below last year. We must invest faster in modern infrastructure, and become energy independent in perpetuity. That is our responsibility. In a nation of 350 million people headed to 500 million people, we must make energy cost less and invest in grid resilience, which is sadly behind what this country needs.

    I find it interesting that Russell Vought, the chief architect of the budget cuts that we are being asked to endure in this bill, claims that he’s so savvy. But how is it possible? He’s supposed to be known as a budget cutter, right? But how is it possible that he has added $3.4 Trillion, despite our cuts to the national debt over the next ten years? Over 20 years, he’s adding $9.5 Trillion, and $18.7 Trillion by 30 years out. So that’s a total of $32 Trillion, if temporary measures are extended permanently. Think about that one. So if they’re doing such a good job over there at the Executive Branch and OMB, how come the national debt is rising when we’re cutting every single bill that we are discussing today, and those that will follow?

    This bill fails to address the cost of living crisis. The price of electricity has risen 5.8% over the last year. Every family in this country knows that, and even higher energy bills lie ahead for families and businesses. China is investing record levels in energy, my friends. But this bill retreats from US global leadership in the future in the form of a diversified and clean energy economy. This energy and water bill cuts $1.6 Billion, or 47%, from the Department of Energy’s energy efficiency and renewable energy programs. The adage analysis prevention is worth a pound of cure applies to our nation’s imperative to deliver clean, affordable, and secure energy to the American people and to ensure our nation leads, not lags, in the global race toward energy independence in perpetuity, including an abundant clean energy future.

    Our mom and dad taught us how to be thrifty and not wasteful. Dad would say, “it’s not how much you make, it’s how much you save,” and that applies to energy and fresh water. Conservation are good goals for the future of our children and grandchildren, and we’ve made some strides toward those horizons. The United States on the oil front is producing more than ever before, record high levels of production, but we are still tethered to a volatile global energy market dominated by cartels and petroleum dictators like OPEC. We must advance an all of the above energy strategy to be successful long term. Europe learned the hard way about being too reliant on one source of energy, Russian gas. In their case when Russia invaded Ukraine. Let us heed that chilling warning.

    China aims to be the OPEC for the next century, and gain dominance in clean energy, and they are well on their way. Their investments dwarf the rest of the world’s. A Chinese company has developed an EV battery. Are you ready for this? That can travel 1,800 miles in a single charge and recharge in just five minutes. Think about that. What sense does it make for this Energy and Water Bill to slash the Department of Energy’s vital research and development programs?

    The Republican plan cripples America’s energy future by awarding giant tax breaks to Millionaires and Billionaires in the Big Billionaire Bonanza Bill that’s creating the big, huge additions to the debt. America must focus on building an economy that works for everyone, especially our working families and retirees, not just the wealthy few. The bill this bill eliminates funding for the Office of Clean Energy Demonstrations, and worse, it revokes $5.1 Billion of Bipartisan Infrastructure Law resources from the Department of Energy that will cede the US global lead in hydrogen, direct air capture, battery recycling, and energy savings in every public and private structure. Already, US businesses have canceled. This is shocking number. More than $15 Billion in investments in new factories and electricity production projects this year, as a result of the Republican Bonanza for Billionaires Bill. Those canceled projects were expected to create nearly 12,000 new jobs, all now gone.

    I can remember when we brought back the heavy Ford heavy truck line from Mexico to the region that I represent, and I stood next to the CEO of the company at that time, and I said, what can I do to keep these jobs anchored here in Northern Ohio? And he looked at me and he didn’t waste a moment. He said, cut my energy bills by a third. Well, think about that one.

    Thus I strongly oppose the Republican cuts to vital energy production and conservation and our future through the US Department of Energy. Shortchanging these advances pushes our nation backwards and raises already high energy prices for consumers. Why drive America backwards by slow walking energy innovation and failing to modernize our nation’s electric grids, which are old.

    In other areas, this bill dangerously short changes our national security, and this is really critical. The bill slashes $412 Million from the Defense Nuclear Nonproliferation account. This effectively guts our efforts to prevent the spread of nuclear weapons, detect covert nuclear threats, and uphold arms control agreements that keep us safe. All a big gift for Iran, Russia, China, Belarus, and North Korea. Think about that Spiderweb of Tyranny.

    Additionally, this bill turns its back on communities still living with the toxic legacy of America’s atomic past. Zeroing out the Army Corps program to clean up radioactive waste at early nuclear sites. It slashes $779 Million from the Department of Energy’s nuclear cleanup efforts. Delaying the cleanup of these communities have been promised for decades. I’ll note for the committee that one of these sites is in the village of Luckey, Ohio, not so far from my district, and believe me, you don’t want to breathe in or ingest atomic waste anywhere in the world. Finally, this bill includes numerous controversial poison pill riders that sadly show some extremists among us are not interested in real bills that can gain bipartisan support and become law.

    In closing, I urge my colleagues to oppose this bill. America can, and must meet the new age frontiers of energy and water. We owe it to the future. Nature is signaling, times are changing. And it’s good to remind ourselves, 200 years after Daniel Webster stated this, that is up on the wall in the House of Representatives chamber. “Let us develop the resources of our land, call forth its powers, build up its institutions, promote all its great interests, and see whether also we in our time and generation may not perform something worthy to be remembered.” That is our mandate today.

    Thank you, and I yield back.

    # # #

    MIL OSI USA News

  • MIL-OSI USA: NASA to Launch SNIFS, Sun’s Next Trailblazing Spectator

    Source: NASA

    July will see the launch of the groundbreaking Solar EruptioN Integral Field Spectrograph mission, or SNIFS. Delivered to space via a Black Brant IX sounding rocket, SNIFS will explore the energy and dynamics of the chromosphere, one of the most complex regions of the Sun’s atmosphere. The SNIFS mission’s launch window at the White Sands Missile Range in New Mexico opens on Friday, July 18. 
    The chromosphere is located between the Sun’s visible surface, or photosphere, and its outer layer, the corona. The different layers of the Sun’s atmosphere have been researched at length, but many questions persist about the chromosphere. “There’s still a lot of unknowns,” said Phillip Chamberlin, a research scientist at the University of Colorado Boulder and principal investigator for the SNIFS mission.  

    The chromosphere lies just below the corona, where powerful solar flares and massive coronal mass ejections are observed. These solar eruptions are the main drivers of space weather, the hazardous conditions in near-Earth space that threaten satellites and endanger astronauts. The SNIFS mission aims to learn more about how energy is converted and moves through the chromosphere, where it can ultimately power these massive explosions.  
    “To make sure the Earth is safe from space weather, we really would like to be able to model things,” said Vicki Herde, a doctoral graduate of CU Boulder who worked with Chamberlin to develop SNIFS.  

    The SNIFS mission is the first ever solar ultraviolet integral field spectrograph, an advanced technology combining an imager and a spectrograph. Imagers capture photos and videos, which are good for seeing the combined light from a large field of view all at once. Spectrographs dissect light into its various wavelengths, revealing which elements are present in the light source, their temperature, and how they’re moving — but only from a single location at a time. 
    The SNIFS mission combines these two technologies into one instrument.  
    “It’s the best of both worlds,” said Chamberlin. “You’re pushing the limit of what technology allows us to do.” 
    By focusing on specific wavelengths, known as spectral lines, the SNIFS mission will help scientists to learn about the chromosphere. These wavelengths include a spectral line of hydrogen that is the brightest line in the Sun’s ultraviolet (UV) spectrum, and two spectral lines from the elements silicon and oxygen. Together, data from these spectral lines will help reveal how the chromosphere connects with upper atmosphere by tracing how solar material and energy move through it. 
    The SNIFS mission will be carried into space by a sounding rocket. These rockets are effective tools for launching and carrying space experiments and offer a valuable opportunity for hands-on experience, particularly for students and early-career researchers.

    “You can really try some wild things,” Herde said. “It gives the opportunity to allow students to touch the hardware.” 
    Chamberlin emphasized how beneficial these types of missions can be for science and engineering students like Herde, or the next generation of space scientists, who “come with a lot of enthusiasm, a lot of new ideas, new techniques,” he said. 
    The entirety of the SNIFS mission will likely last up to 15 minutes. After launch, the sounding rocket is expected to take 90 seconds to make it to space and point toward the Sun, seven to eight minutes to perform the experiment on the chromosphere, and three to five minutes to return to Earth’s surface.  

    [embedded content]
    A previous sounding rocket launch from the White Sands Missile Range in New Mexico. This mission carried a copy of the Extreme Ultraviolet Variability Experiment (EVE).Credit: NASA/University of Colorado Boulder, Laboratory for Atmospheric and Space Physics/James Mason

    The rocket will drift around 70 to 80 miles (112 to 128 kilometers) from the launchpad before its return, so mission contributors must ensure it will have a safe place to land. White Sands, a largely empty desert, is ideal. 
    Herde, who spent four years working on the rocket, expressed her immense excitement for the launch. “This has been my baby.” 

    By Harper LawsonNASA’s Goddard Space Flight Center, Greenbelt, Md.

    MIL OSI USA News

  • MIL-OSI: Fusion Fuel’s BrightHy Solutions and Houpu Global Clean Energy Sign Strategic Agency Agreement to Expand Hydrogen Infrastructure in Europe and Latin America

    Source: GlobeNewswire (MIL-OSI)

    DUBLIN, July 17, 2025 (GLOBE NEWSWIRE) — via IBN — Fusion Fuel Green PLC´s (NASDAQ: HTOO) (“Fusion Fuel” or the “Company”) hydrogen advisory and solutions subsidiary, Bright Hydrogen Solutions Ltd (“BrightHy Solutions”), has signed an agency agreement with Houpu Global Clean Energy Co., Ltd. (“Houpu Global Clean Energy”), a leading Chinese manufacturer of hydrogen refueling equipment and clean energy technologies.

    The commercial relationship represents a key milestone in Fusion Fuel’s strategy to expand the deployment of advanced hydrogen refueling infrastructure and integrated hydrogen systems across Iberia and Latin America.

    Under this agreement, BrightHy Solutions will act as Houpu Global Clean Energy’s authorized agent for its hydrogen product portfolio within the territory, leveraging BrightHy Solutions’ deep market experience, commercial network, and engineering expertise to promote, negotiate, and deliver Houpu Global Clean Energy’s equipment and services. The collaboration aims to accelerate the development of hydrogen infrastructure projects that support industrial decarbonization and clean mobility solutions throughout the region.

    Houpu Global Clean Energy, with its extensive manufacturing capabilities, engineering know-how, and global project references, brings cutting-edge hydrogen refueling and clean energy solutions to the commercial relationship. Combined with BrightHy’s localized presence, business development capabilities, and technical support services, customers will benefit from an integrated approach that ensures reliable, efficient, and high-quality project execution.

    “We are excited to collaborate with Houpu Global Clean Energy to expand the reach of their hydrogen refueling and clean energy technologies in our markets,” said Mr. Frederico Figueira de Chaves, Chief Executive Officer of BrightHy Solutions. “Houpu Global Clean Energy’s strong industrial background, combined with BrightHy Solutions’ customer-driven approach and local expertise, positions us to deliver complete and dependable solutions to clients who are driving the hydrogen transition.”

    Mr. Liu Xing, vice president of Houpu Global Clean Energy, added: “Working with BrightHy Solutions strengthens our ability to serve the growing demand for hydrogen infrastructure outside of China. Their market knowledge and commitment to technical excellence make them an ideal partner to jointly pursue the expansion of hydrogen solutions across new territories.”

    As demand for hydrogen continues to grow globally, this agreement reinforces both companies’ shared vision to advance practical, safe, and scalable hydrogen technologies in support of the global energy transition.

    About Fusion Fuel Green PLC

    Fusion Fuel Green PLC (NASDAQ: HTOO) provides integrated energy engineering, distribution, and green hydrogen solutions through its Al Shola Gas and BrightHy Solutions platforms. With operations spanning LPG supply to hydrogen solutions, the Company supports decarbonization across industrial, residential, and commercial sectors.

    About Bright Hydrogen Solutions Ltd

    Bright Hydrogen Solutions Ltd, a subsidiary of Fusion Fuel Green PLC (NASDAQ: HTOO) is positioning itself as a leader in the hydrogen through electrolysis solutions market. With its substantial industry experience, BrightHy Solutions is a partner to clients through the entire hydrogen production value chain including plant design, tailored engineering solutions, equipment sourcing, engineering and implementation oversight. BrightHy Solutions has a strong and core focus on safety, reliability, and efficiency.

    About Houpu Global Clean Energy Co., Ltd.

    Houpu Global Clean Energy Co., Ltd. is a leading provider of hydrogen refueling and clean energy infrastructure solutions, specializing in the development and integration of equipment for the entire hydrogen value chain. As a pioneer in China’s clean mobility sector, Houpu Global Clean Energy leverages decades of engineering experience and a strong manufacturing base to deliver advanced solutions including hydrogen dispensers, compressors, storage systems, and control systems. The company’s expertise spans design, manufacturing, and turnkey deployment of hydrogen refueling stations and related equipment. With a commitment to safety, reliability, and innovation, Houpu Global Clean Energy is enabling the decarbonization of transportation and industry, supporting the global shift toward a low-carbon future.

    Forward-Looking Statements

    This press release includes “forward-looking statements” within the meaning of Section 27A of the U.S. Securities Act of 1933, as amended, and Section 21E of the U.S. Securities Exchange Act of 1934, as amended, which statements involve substantial risks and uncertainties. Forward-looking statements generally relate to future events or the Company’s future financial or operating performance. In some cases, you can identify these statements because they contain words such as “may,” “will,” “believes,” “expects,” “anticipates,” “estimates,” “projects,” “intends,” “should,” “seeks,” “future,” “continue,” “plan,” “target,” “predict,” “potential,” or the negative of such terms, or other comparable terminology that concern the Company’s expectations, strategy, plans, or intentions. Forward-looking statements relating to expectations about future results or events are based upon information available to the Company as of today’s date and are not guarantees of the future performance of the Company, and actual results may vary materially from the results and expectations discussed. The Company’s expectations and beliefs regarding these matters may not materialize, and actual results in future periods are subject to risks and uncertainties that could cause actual results to differ materially from those projected, including, without limitation, the risks and uncertainties described under Item 3. “Key Information – D. Risk Factors” and elsewhere in the Company’s Annual Report on Form 20-F filed with the U.S. Securities and Exchange Commission (the “SEC”), on May 9, 2025 (the “Annual Report”), and other filings with the SEC. Should any of these risks or uncertainties materialize, or should the underlying assumptions about the Company’s business and the commercial markets in which the Company operates prove incorrect, actual results may vary materially from those described as anticipated, estimated or expected in the Annual Report. All subsequent written and oral forward-looking statements concerning the Company or other matters and attributable to the Company or any person acting on its behalf are expressly qualified in their entirety by the cautionary statements above. The Company does not undertake any obligation to publicly update any of these forward-looking statements to reflect events or circumstances that may arise after the date hereof, except as required by law.

    Investor Relations Contact
    ir@fusion-fuel.eu
    www.fusion-fuel.eu 

    Wire Service Contact:
    IBN
    Austin, Texas
    www.InvestorBrandNetwork.com 
    512.354.7000 Office
    Editor@InvestorBrandNetwork.com 

    The MIL Network

  • MIL-OSI United Kingdom: Treaty between the United Kingdom of Great Britain and Northern Ireland and the Federal Republic of Germany on friendship and bilateral cooperation

    Source: United Kingdom – Executive Government & Departments

    Press release

    Treaty between the United Kingdom of Great Britain and Northern Ireland and the Federal Republic of Germany on friendship and bilateral cooperation

    Treaty between the United Kingdom of Great Britain and Northern Ireland and the Federal Republic of Germany on friendship and bilateral cooperation

    The United Kingdom of Great Britain and Northern Ireland and the Federal Republic of Germany, hereinafter referred to as “the Parties”,

    Guided by the desire to join forces for a prosperous, secure and sustainable future for their citizens and their open, democratic societies in the face of fundamental changes of the geopolitical environment;

    Inspired by a common will to address the momentous new challenges to Euro-Atlantic security in an era characterised by increased strategic competition, challenges to the rules-based international order and challenges to their democracies from increasing hybrid threats;

    Identifying the Russian Federation’s brutal war of aggression on the European continent as the most significant and direct threat to their security;

    Convinced that they will better master these challenges by deepening their close cooperation as European neighbours and allies on the basis of the strong ties that connect their countries, peoples and governments and their shared history, values and interests;

    Determined to join forces to assert these values and interests in close cooperation in a changing world, and to uphold peace and security for their citizens; convinced of the need to pursue a broad, integrated and multifaceted approach to their security;

    Guided by their steadfast commitment to individual liberty, human rights, democracy, and the rule of law in open societies, and by their will to work together for the good of the European continent and of an international order based on shared rules, norms and principles;

    Convinced that prosperity and security can only be guaranteed by limiting the increase of global average temperature to 1.5°C above pre-industrial levels and conserving biodiversity and ecosystems; recognising the importance of their free and open market economies and of delivering mutual growth, including through their trade and investment relationship, to provide high-quality jobs to their citizens and underpin their prosperity while ensuring growth aligns with their net zero commitments and a just transition;

    Convinced of the imperative of international cooperation to seize the opportunities and mitigate the risks of technological change; reaffirming the critical role that science, innovation and technology as well as education play in contributing to their collective security and their sustainable economic growth and prosperity, and recognising the value of building cooperation in critical areas of science and technology that will shape their futures;

    Recalling the Federal Republic of Germany’s membership in the European Union and the commitments and obligations resulting therefrom; and the legal framework for the relationship between the European Union and the United Kingdom of Great Britain and Northern Ireland underpinned by the Withdrawal Agreement, including the Windsor Framework, and the Trade and Cooperation Agreement; sharing the view that their cooperation is consistent with and benefits from the wider relationship of the European Union and the United Kingdom of Great Britain and Northern Ireland and that a positive development of the latter is in their shared interest;

    Reaffirming their ironclad commitment to the Transatlantic Alliance as the bedrock of their security, based on shared values, and a shared commitment to the security of the Euro-Atlantic area, and underpinned by enhanced European contributions;

    Commending the Agreement on Defence cooperation between the Ministry of Defence of the United Kingdom of Great Britain and Northern Ireland and the Federal Ministry of Defence of the Federal Republic of Germany, signed at Trinity House in London on 23 October 2024;

    Mindful of the vital role, specific responsibilities and interests of municipalities, the German Länder, the German Bundestag and Bundesrat in the Federal Republic of Germany, and of the devolved governments, Parliaments and legislative assemblies and the Houses of Parliament in the United Kingdom of Great Britain and Northern Ireland,

    HAVE AGREED AS FOLLOWS:

    Chapter 1

    Diplomacy, Security and Development

    ARTICLE 1

    • The Parties shall consult each other on foreign and security policy matters to enable the closest cooperation across all shared priorities. They shall work together on their respective policies and seek to establish joint approaches, including with regard to their collaboration with global partners and in multilateral and other settings.

    • The Parties shall pursue deep exchanges on strategic aspects of security policy, including deterrence and defence, nuclear issues, arms control, non-proliferation, chemical, biological, radiological, nuclear threats space security, counter-terrorism and the broader international security architecture, in order to support the security of Europe and the world. They shall increase cooperation on intelligence and national security capabilities in order to contribute effectively to this goal.

    • The Parties shall deepen their cooperation to understand, counter and respond to threats and hostile actions by state and non-state actors. The Parties shall work together on their approaches to crisis management, consular support and conflict resolution and prevention.

    • The Parties emphasise the importance of close cooperation on sanctions policy and implementation, to strengthen their effectiveness.

    • Foreign Ministers shall hold an annual Strategic Dialogue. A Senior Level Officials Group shall meet annually to coordinate foreign, security and defence policy.

    ARTICLE 2

    • The Parties shall strive to strengthen the Strategic Partnership between the United Kingdom of Great Britain and Northern Ireland and the European Union, including through the Security and Defence Partnership between the European Union and the United Kingdom of Great Britain and Northern Ireland. The Federal Republic of Germany affirms its deep and unwavering commitment to its role as a founding member of the European Union, which remains a foundation of its policy decisions.

    • The Parties shall seek to intensify the trilateral cooperation with the French Republic, as well as their cooperation with other partners, and within multilateral formats such as the G7 and the United Nations, in order to jointly address international challenges.

    ARTICLE 3

     (1) The Parties reaffirm their commitment to the North Atlantic Treaty Organisation as the foundation of their collective defence and to their obligations as stipulated in the North Atlantic Treaty of 4 April 1949, in particular Article 5. The Federal Republic of Germany reaffirms its deep commitment to its obligations as a member of the European Union, including paragraph 7 of Article 42 of the Treaty on European Union.

    (2) The Parties shall work together as North Atlantic Treaty Organisation Allies to ensure the Alliance continues to strengthen collective deterrence and defence against all threats and from all directions and to enhance the European contribution to Europe’s own security. To this end, they shall coordinate their positions, including in the area of deterrence and defence, and ensure that increased contributions and investments deliver on their commitments. They commit to working towards fostering close and effective cooperation between the North Atlantic Treaty Organisation and the European Union.

    • Conscious of the close alignment of their vital interests and convinced that there is no strategic threat to one which would not be a strategic threat to the other, the Parties affirm as close Allies their deep commitment to each other’s defence and shall assist one another, including by military means, in case of an armed attack on the other.

    ARTICLE 4

    (1) The Parties share deep concern at the threats and challenges posed by hybrid threats and foreign interference from state actors and their proxies using increasingly aggressive actions to undermine their security and democratic values, and those of their Allies and partners. These include inter alia sabotage, malicious cyber activity, foreign information manipulation and interference and the malign use of emerging technologies such as artificial intelligence.

    (2) The Parties shall work to strengthen resilience as well as build capacity and capability to detect, deter, disrupt, and respond to these threats. They acknowledge the key roles of the North Atlantic Treaty Organisation, the G7, and the European Union in this regard. To achieve this, the Parties shall consider means such as information sharing, the development of tools, coordination of disruption and response options, and exchanges of lessons learned and other means.

    (3) The Parties shall continue to cooperate in the field of cyber diplomacy, cybersecurity and emerging technologies. They also agree to promote responsible behaviour in cyberspace.  

    ARTICLE 5

    Guided by the principles of the Agenda 2030 for Sustainable Development and the Sustainable Development Goals, the Parties shall cooperate strategically on sustainable development, crisis prevention and response, peacebuilding, stabilisation and humanitarian assistance. They shall support strong coordination in the nexus between humanitarian, development and peace efforts. They shall work together on the protection and promotion of global public goods including climate, biodiversity, global health and education. Jointly they shall fight inequalities worldwide, including through the empowerment of women and girls. They will work together on anticipatory action to improve local resilience and promote inclusive and locally led responses to crises. Both countries shall contribute jointly to strengthening and reforming the multilateral system and the international financial architecture, making them more just, effective and sustainable and ensuring they deliver for the most vulnerable. They shall hold a regular intergovernmental dialogue on these topics.

    ARTICLE 6

    The Parties shall seek closer collaboration to address health threats and advance global health priorities including pandemic prevention, preparedness and response as well as anti-microbial resistance and the ‘One-Health’ approach. They shall work on these issues both bilaterally and via more coordinated, effective, and efficient global health institutions. The Parties shall share experiences to tackle common domestic health issues.

    Chapter 2

    Defence Cooperation

    ARTICLE 7

    (1) In this new era for enhanced European defence, the Parties share the strategic objective to reinforce Euro-Atlantic security and ensure effective deterrence against potential aggressors by building credible, resilient defence forces, strengthening their capability across all domains. The Parties shall seek to support their defence industries and enhance bilateral military interoperability, interchangeability and integration. They shall ensure their mutual support to the North Atlantic Treaty Organisation, committing to working together towards the vision of a peaceful and secure Euro-Atlantic area.

    (2) The Parties remain committed to improving and further strengthening bilateral defence cooperation. They shall build a long-term partnership to improve and further enhance European defence, also with a view to enabling enhanced cooperation with Allies and partners.

    (3) The Parties shall intensify their cooperation through joint political leadership, enhanced dialogue, and agreed mechanisms. They shall deepen their cooperation on deterrence and regularly review their collaboration in order to meet future threats across all domains: Land, Sea, Air, Space and Cyber.

    (4) Sharing a special interest and focus on the northern and eastern flanks of the North Atlantic Treaty Organisation, the Parties shall work together, alongside their North Atlantic Treaty Organisation Allies, to strengthen deterrence and defence to these areas, coordinating their forces where possible.

    (5) The Parties reaffirm their determination to meet their commitments as North Atlantic Treaty Organisation Allies, to be prepared for high-intensity and multi-domain collective defence. They shall provide such forces, capabilities, resources and infrastructure as are needed to enable the execution of the Defence Plans of the North Atlantic Treaty Organisation.

    (6) The Parties shall seek to enhance industrial and capability cooperation through a long-term joint approach endeavouring to deliver effective military capabilities efficiently, minimising national constraints, and strengthening industrial competitiveness.

    (7) The Parties shall endeavour to maintain a close dialogue on defence issues of mutual interest and global horizon-scanning, including on nuclear issues.

    ARTICLE 8

    (1) The Parties recognise the importance of having a reliable agenda with regard to transfers and exports in order to ensure the economic and political success of their industrial and intergovernmental cooperation and their respective competence to authorise the transfer or export, from their territory, of defence-related products from intergovernmental programmes or developed by their industries. 

    (2) Recognising the joint and unanimous invitation dated 25 June 2025 from the contracting parties of the Agreement on Defence Export Controls concluded by the French Republic, the Federal Republic of Germany and the Kingdom of Spain on 17 September 2021 (the “Agreement on Defence Export Controls ”) to the United Kingdom of Great Britain and Northern Ireland to accede to such Agreement on Defence Export Controls, the Parties agree to preliminarily apply as between them, in their cooperation on defence export controls, Articles 1 to 5 and Annexes 1 to 3 of the Agreement on Defence Export Controls until the date on which the United Kingdom of Great Britain and Northern Ireland accedes to such Agreement on Defence Export Controls.

    (3) In the event that the United Kingdom of Great Britain and Northern Ireland accedes to the Agreement on Defence Export Controls, paragraph 2 of the present Article shall cease to have effect.

    Chapter 3

    Internal Security, Justice and Migration

    ARTICLE 9

    • The Parties shall cooperate closely and equitably to counter state and non-state threats to their internal security, including to critical infrastructure, making best use of all suitable policy, legal, operational, diplomatic and technological tools and mechanisms and ensuring that law enforcement bodies and intelligence agencies have the right tools and capabilities.

    • The Parties shall work together bilaterally and through multilateral organisations to improve their law enforcement capabilities. They shall work with INTERPOL to support the integrity of the international system and prevent abuse by malign actors. They acknowledge the vital role of European Union agencies, such as Europol and Eurojust, in this regard. They shall consider further ways to strengthen their response to organised crime and terrorism, noting the challenges posed by hybrid threats.

    (3) The Parties agree that it is in their common interest to cooperate closely on preventing and countering transnational serious and organised crime, including criminal offences falling within the jurisdiction of the customs authorities. They re-confirm their cooperation in the joint efforts to strengthen anti-money laundering and counter the financing of terrorism and their fight against illicit financial flows and other shared organised crime threats, such as drug trafficking.

    (4) The Parties shall continue to hold a Home Affairs Dialogue at senior official level at least annually which covers the full range of Home Affairs issues, including tackling serious and organised crime, including migrant smuggling, and border security. The Parties shall pursue a comparable bilateral exchange on criminal offences falling within the jurisdiction of the customs authorities.

    (5) The Parties shall strengthen collaboration to counter terrorist threats to both their countries, including on protective security measures against emerging threats.

    ARTICLE 10

    (1) The Parties are committed to fostering the most effective cooperation in criminal justice matters between the United Kingdom of Great Britain and Northern Ireland and the Federal Republic of Germany. 

    (2) The Parties shall work to intensify collaboration on the rule of law, including in its promotion overseas, and exchange learning on the modernisation of their domestic justice systems.

    (3) The Parties shall share information, best practice and technical assistance in civil and family matters.

    ARTICLE 11

    (1) Recognising the challenge from irregular migration and global pressures, the United Kingdom of Great Britain and Northern Ireland and the Federal Republic of Germany commit to being active leaders in the global conversation on migration, asylum and borders. The Parties shall cooperate in the joint fight against organised cross-border crime involving migrant smuggling and trafficking in persons. They will support the provision of mutual legal assistance and the prosecution of offenders involved in the smuggling of migrants into and between the two countries. The Parties affirm their joint commitment to border security and regulated migration systems.  

    (2) The Parties shall deepen comprehensive partnerships with countries of origin and transit to address the upstream drivers of irregular migration, including by meeting humanitarian needs, providing education and skills training, boosting employment, and building resilience to conflict and climate change. The Parties recognise that safe and legal pathways in line with national competences are important for regular and orderly migration. Both Parties support a safe, regulated migration system, and share a firm commitment to international law and human rights standards.

    Chapter 4

    Economic Growth, Resilience and Competitiveness

    ARTICLE 12

    • The Parties shall work together to support economic growth, job creation, digital transition and innovation. This includes delivering a just industrial transformation that enables a sustainable and carbon-neutral future and takes into account the needs of future generations. They shall therefore identify vulnerabilities and collaborate on policies.

    • The Parties acknowledge strong business-to-business and people-to-people ties, including many Small and Medium Enterprises, as the foundation of their economic relationship, and agree to take forward joint work in the field of promoting trade and investment, to further build value chains between their countries.

    • The Parties shall work together to deliver their shared ambition of mobilising investment in opportunities that will grow their economies. In doing so, they shall take into consideration the important role of private sector investment and the benefits of coordinating activities between public financial institutions.

    • The Parties recognise the need to strengthen the multilateral trading system particularly by supporting reform of the World Trade Organisation including through discussions in relevant international fora such as the G7 and G20.

    (5) The Parties agree to continue the structured annual dialogue between their ministries of finance, and explore further opportunities to support exchanges between economic experts.

    ARTICLE 13

    • The Parties, acknowledging the strength and complementarity of their economies as well as the importance of a favourable business environment, commit to working with business to drive growth and strengthen the business, commercial and industrial links between the United Kingdom of Great Britain and Northern Ireland and the Federal Republic of Germany. The Parties shall focus their cooperation particularly on those areas where it will be most effective in securing the future competitiveness of their economies.

    • The Parties shall work jointly to take full advantage of the significant economic opportunities arising from the green transition, including in particular the renewable energy potential in the North Sea.

    • The Parties recognise the importance of long-term industrial cooperation and shall work together to identify opportunities for coordination and cooperation in the context of their industrial transformations.

    • The Parties shall enhance transport connectivity and collaborate in the field of sustainable, innovative and universally accessible transport solutions and mobility, including cooperation to support the decarbonisation of transport. To this end, they will seek to facilitate direct long distance rail passenger services between their countries.

    • The Parties share the common goal of strengthening the international competitiveness of their aerospace industries and at the same time significantly reducing the climate impact of aviation. Therefore, the Parties agree to further strengthen the existing bilateral activities in the field of aerospace research and to engage in consultations between the ministries and their national research institutions on a regular basis.

    • The Parties’ responsible ministries agree to a structured exchange to address the issues of inclusive and sustainable employment and social policy, just transition of the economy, society and the work environment, and ethical principles and shared values in the context of digital transformation, ensuring that digitalisation and the evolving digital society meet the rights and needs of citizens and the work environment in both countries.

    • The Parties shall work together to enhance their domestic housing policies, to promote innovative approaches to sustainable construction and buildings, and to share best practice on urban matters, with a view to achieving cities that are socially, ecologically, and economically balanced They shall cooperate in multilateral settings on these matters.

    ARTICLE 14

    The Parties commit to working together to safeguard economic stability. They shall strive to strengthen economic resilience to safeguard and protect their national security and deliver secure, sustainable and resilient growth. They shall increase dialogue on economic security to enhance cooperation on priorities such as supply chain resilience, including for critical raw materials, critical technology and critical infrastructure as well as protective toolkits.

    ARTICLE 15

    (1) The Parties shall intensify their cooperation in the field of science, technology, research and innovation, including in critical and emerging areas and research security. The Parties agree to consider funding channels and other means to develop joint bilateral and multilateral activities.

    (2) The Parties shall place special emphasis on their cooperation on innovative or disruptive technologies, ensuring they are able to capitalise more effectively on their strengths in basic and applied research to enable their businesses to grow through the development and commercialisation of new products, processes and services.

    (3) The Parties shall promote the global development and deployment of technologies, with particular attention to ensuring the secure and responsible advancement of fields such as artificial intelligence or space.

    (4) The Parties agree to regular and structured exchanges on science, innovation and technology, building on existing structures including the Science, Innovation and Technology Dialogue. The Parties commit to cooperate on current and future challenges across research and innovation, and emerging and critical technologies. This cooperation will include promoting technology development and adoption, international governance, competition policy, sustainability and exchanges on regulatory issues consistent with national competence.

    ARTICLE 16

    (1) The Parties shall intensify their cooperation in the field of digitalisation and modernisation of the state, including digitalisation of society, economy, science, government and public administration. The Parties agree to consider funding channels and other means to develop joint bilateral and multilateral activities.

    (2) The Parties agree to regular and structured exchanges on digitalisation and the modernisation of the state, building on existing structures including a dialogue on digital policy. The Parties commit to cooperate on current and future challenges across digital and data affairs, digitalisation of the state and digital sovereignty.

    Chapter 5

    Open and Resilient Societies

    ARTICLE 17

    • The Parties shall cooperate on strategies for strengthening the resilience of their democracies in order to build resilient societies which are able to contribute to their countries’ security and to withstand the increasing attempts of interference and manipulation.

    • The Parties shall deepen their cooperation in the fight against all forms of hate crime, whilst promoting freedom of expression and freedom of religion or belief.

    ARTICLE 18

    • The Parties shall strive to reduce obstacles in order to promote exchanges between their citizens on all levels. They shall work towards strengthening people-to-people contacts. The Parties shall promote smoother border fluidity and will provide each other’s citizens access to automated border technology.

    • Particular focus shall be placed on increasing exchange between young people. The Parties value bilateral school and youth exchanges, and shall facilitate such exchanges, supporting the development of relevant structures and initiatives, such as the “UK-German Connection”.

    • The Parties recognise the importance of vocational training, university education and learning opportunities such as internships. The Parties shall jointly endeavour to increase exchanges within their own legislative frameworks with regard to education, skills and training.

    • The Parties shall promote closer relations in all fields of cultural expression, including activities to promote dialogue and cooperation to share best practice between cultural institutions; close cooperation of the British Council and Goethe-Institut; and establishment of an intergovernmental Working Group on Creative Technology.

    • The Parties acknowledge the important role of civil society and they shall strive to support the work of educational institutions, cultural bodies and political organisations.

    • The Parties shall use the annual meetings of the Cultural Commission to the ends of this Article.

    Chapter 6

    Climate, Energy, Nature, Environment and Agriculture

    ARTICLE 19

    • The Parties shall further deepen their bilateral and multilateral cooperation to mitigate the effects of climate change and to pursue efforts to limit the increase of global average temperature to 1.5°C above pre-industrial levels, including through implementation of the Paris Agreement, the Outcome of the first Global Stocktake adopted at the 28th Conference of the Parties to the United Nations Framework Convention on Climate Change (COP 28) and the Glasgow Climate Pact adopted at the 26th Conference of the Parties to the United Nations Framework Convention on Climate Change (COP 26).

    • The Parties shall enhance their climate foreign policy collaboration and cooperation, including through the UK-Germany Climate Diplomacy Dialogue, to make financial flows consistent with a pathway towards low greenhouse gas emissions and climate-resilient development, address the interplay between climate, environment, peace, and security, and support developing countries to decarbonise their economies and adapt to the adverse effects of climate change.

    • Recognising the significant societal, environmental economic, and geopolitical impacts of the global energy transition and the shift towards climate neutrality, the Parties shall intensify their dialogue to anticipate and address emerging foreign policy and security challenges.

    ARTICLE 20

    • The Parties intend to work together under the Joint Declaration of Cooperation on Energy and Climate, including the Hydrogen Partnership, to realise their shared ambitions regarding: renewable energy; the role of hydrogen, in particular from renewable sources; carbon capture utilisation and storage, in particular in hard-to-abate sectors; energy security; net zero strategies and policies; and green transition. The scope and priorities for this work shall be reviewed by annual senior official and ministerial meetings.

    • The Parties shall work together to achieve their respective domestic emissions reductions targets, to enhance domestic and global just energy transition resilience and security, including by improving energy and resource efficiency, and to provide secure, sustainable and affordable clean energy derived from renewable sources, in an effort to implement the goals laid out in the Paris Agreement and in the 2030 Agenda for Sustainable Development.

    • Recognising their leading role in the North Seas, they shall work together to accelerate the development of offshore wind energy, electricity, hydrogen and carbon dioxide infrastructures.

    ARTICLE 21

    • The Parties shall cooperate bilaterally and multilaterally to promote environmental protection and halt and reverse biodiversity loss in line with the Kunming-Montreal Global Biodiversity Framework, including through restoring nature, halting and reversing deforestation, protecting the ocean, reducing plastic, chemical and air pollution and pursuing nature-based solutions.

    • The Parties shall work together to promote resilient and sustainable agriculture and food systems internationally, including high animal welfare standards. They shall focus in particular on achieving global food security and nutrition including as a means of pursuing global stability and security.

    Chapter 7

    Forms of Cooperation

    ARTICLE 22

    The Parties agree to hold government ministerial consultations led by Heads of Government every two years, which shall endorse an Implementation Plan of projects under the Treaty for the following two-year period. The venue for the consultations shall alternate between the two countries. Ministerial level dialogues on individual policy themes shall take place whenever both Parties deem appropriate. The Parties’ foreign ministries shall meet annually to review the bilateral relationship in accordance with the provisions of this Treaty.

    ARTICLE 23

    Existing cooperation agreements and Memoranda of Understanding between line ministries shall be continued and pursued in the framework of this Treaty.

    Final Provisions

    ARTICLE 24

    This Treaty and its application shall be without prejudice to the Parties’ obligations stemming from international law and, in respect of the Federal Republic of Germany, its obligations stemming from its European Union membership. Nothing in this Treaty shall affect the Federal Republic of Germany’s obligations under European Union law.

    ARTICLE 25

    This Treaty shall apply:

    (a) to the territory of the Federal Republic of Germany; and

    (b)     to the territory of the United Kingdom of Great Britain and Northern Ireland, and may be extended to any or all of the Bailiwick of Guernsey, the Bailiwick of Jersey, and the Isle of Man by mutual agreement between the Parties by exchange of notes.

    ARTICLE 26

    The Parties may agree, in writing, to amend this Treaty. Such amendments shall enter into force in accordance with Article 30.  

    ARTICLE 27

    (1) A Party may terminate this Treaty by giving the other Party notice in writing. Such termination shall take effect six months after the date of the notification, or on such date as the Parties may agree.

    (2) Either Party may request consultations regarding whether the termination of this Treaty should take effect on a date later than that provided in paragraph 1.

    ARTICLE 28

    Any disputes concerning the interpretation, application or implementation of the Treaty shall be resolved solely by negotiation between the Parties.

    ARTICLE 29

    Registration of this Treaty with the Secretariat of the United Nations, in accordance with Article 102 of the Charter of the United Nations, shall be initiated by the United Kingdom of Great Britain and Northern Ireland immediately following its entry into force. The Federal Republic of Germany shall be informed of registration, and of the United Nations registration number, as soon as this has been confirmed by the Secretariat of the United Nations.

    ARTICLE 30

    (1) The present Treaty is subject to ratification; the instruments of ratification shall be exchanged as soon as possible.

    (2) The present Treaty shall enter into force on the date of the exchange of the instruments of ratification.

    Updates to this page

    Published 17 July 2025

    MIL OSI United Kingdom