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Wednesday, January 28, 2026

MONOPOLY CAPITALI$M

CHARTS: Mining M&A surges as Canada deal values hit post-2009 high

Recent large deals, including the proposed Anglo–Teck merger, highlight the rush into mining M&A. (Image of Highland Valley Copper. Courtesy of Teck.)

Mining companies are rushing into mergers and acquisitions (M&A) as a core growth strategy, a shift that is helping drive Canada’s deal market to its highest level in more than a decade, a Bain & Company report shows.

The shift reflects mounting pressure from rising capital costs, longer development timelines and intensifying competition for high-quality assets, which are the main forces reshaping how miners pursue growth and efficiency.

Bain estimates that global mining transactions valued above $500 million rose about 45% in 2025 compared with 2024, as companies looked to secure scale and resilience through acquisitions rather than greenfield development.

Recent large moves underscore the trend. Anglo American’s (LON: AAL) proposed merger with Teck (TSX: TECK.A TECK.B, NYSE: TECK), which values the Canadian miner at nearly $24 billion including debt, would create a combined entity with a market value of roughly $53 billion

Courtesy of Bain & Company’s 2026 Global M&A Report.

Bain says such transactions highlight how strategic M&A is becoming a critical tool for competitiveness and capital efficiency as the sector positions for a new commodity supercycle.

The next wave of mining dealmaking is expected to be larger, more complex and more decisive in determining long-term winners, the report finds.

Execution matters


While most large mining deals over the past decade have delivered neutral or positive shareholder outcomes, few have reached their full potential. Bain points to timing risk, peak-cycle valuations and execution challenges as the main constraints on value creation.

Successful examples show what is possible when execution is strong. Agnico Eagle’s $10.7 billion merger with Kirkland Lake Gold created the world’s second-largest gold producer, anchored in the Abitibi gold belt. The deal targeted between $800 million and $2 billion in synergies over five to 10 years, with only 15% to 20% tied to general and administrative costs and the bulk expected from operational and strategic integration.

Courtesy of Bain & Company’s 2026 Global M&A Report.

By the second quarter of 2022, Agnico reported early “quick-win” synergies and signalled it could exceed the $2 billion target. Subsequent milestones—including commissioning the Macassa mine’s No. 4 shaft in 2023 and record gold production and free cash flow in 2024—point to growing momentum, though Bain notes it is still early to fully assess outcomes.

Canada focus

Canada’s total M&A deal value rose 30% to $178 billion last year, outperforming the US on strategic transactions even as it lagged the 40% increase globally. Strategic M&A value jumped 57% year over year in Canada, compared with 54% growth south of the border.

Energy and natural resources led Canadian strategic dealmaking, with deal value rising 133% in 2025, while advanced manufacturing and services declined 21%. Strategic buyers accounted for $149 billion in total deal value, though the number of Canadian deals larger than $30 million increased just 8% from the prior year.

Beyond Canada, Bain highlights Evolution Mining (ASX: EVN) as an example of repeatable, strategic M&A done well. The company focuses on building regional, long-life operating hubs where adjacent assets and shared expertise compound value. Rather than relying on top-down cost cutting, Evolution emphasizes operating leverage —shared infrastructure, transferable mining methods and portfolio mix— to strengthen margins across cycles.

Looking ahead, dealmakers remain optimistic about 2026 but warn that macroeconomic and geopolitical uncertainty could still temper market momentum, particularly for capital-intensive sectors such as mining.

Anglo-Teck merger would create a ‘global minerals family’ HQ’d in Vancouver, CTO says


Anglo American’s chief technical officer Tom McCulley. Credit: AME.

Anglo American’s chief technical officer Tom McCulley used his first appearance at the Association for Mineral Exploration (AME) Roundup to deliver a clear message to the industry: the global energy transition will fail without faster, deeper and more innovative mineral discovery.

Speaking at the annual  conference in Vancouver on Monday, McCulley said the pace of global change – driven by electrification, artificial intelligence, population growth and geopolitical uncertainty – is accelerating demand for critical minerals at a time when supply is falling behind.

“The world needs more critical minerals, and it needs them faster, safer and more sustainably,” he told delegates, warning that declining ore grades, deeper and more complex deposits, rising capital costs and lengthening permitting timelines are tightening the supply outlook.

Copper, McCulley noted, illustrates the scale of the challenge. While developed economies have roughly 230 kilograms of installed copper per person, the global average is closer to 70 kilograms, he said. 

Closing that gap would require installed copper stocks to rise from about 500 million tonnes today to more than 2 billion tonnes in the coming decades, a figure likely to increase further with the expansion of data centres, electrification and grid infrastructure.

Against that backdrop, exploration remains the industry’s most critical lever, McCulley said. Anglo American’s approach, he noted, is built around scale, discipline and innovation, supported by an integrated discovery and geosciences team that combines global exploration, near-asset discovery and advanced geoscience capabilities.

McCulley highlighted several proprietary technologies that Anglo American is deploying to improve discovery success,  highlighting the Spectrum airborne system, which collects high-resolution electromagnetic, magnetic and radiometric data in a single pass; a highly sensitive ground-based magnetometer known as “low-temperature SQUID” used to detect metallic sulphides in complex geological settings; and AI-assisted core logging, which can reduce weeks of manual relogging work to a single day.

While technology is critical, he stressed that trust and community relationships ultimately determine whether discoveries become mines. Drawing on his experience at Anglo American’s Quellaveco copper mine in Peru, commissioned in 2022, he said early and sustained engagement with communities and government was essential to managing social and environmental risks – particularly water access in arid regions.

At Quellaveco, Anglo American worked with local communities to design water diversion and storage infrastructure that prioritised community needs, including a 60-million-cubic-metre dam largely dedicated to regional water supply.

 “The community feels this is their dam,” he said, describing the project as a model for future developments across the company’s global portfolio.

“This dam, known as the Vizcachas dam, we did this all because of open dialogue with the community. The majority of the water from that dam is for the community  – not the mine. The community not only worked with us, but helped us design – this is their dam.” 

Mega-merger with Teck

Turning to Canada, McCulley said the country is uniquely positioned to supply critical minerals for the energy transition, citing its geological endowment, regulatory framework and commitment to responsible mining. 

He pointed to the federal government’s 2025 budget, which earmarks more than $2 billion to enhance mining competitiveness and accelerate critical minerals investment.

Anglo American’s proposed $53-billion mega- merger with Teck Resources, announced last September, would create a global copper giant.

The Canadian government has approved the Anglo-Teck merger, clearing the way for the creation of one of the world’s largest copper producers as demand accelerates.

“We have a long history of partnerships…and this year’s theme: Materials for a changing world, couldn’t be more fitting for us at Anglo American, but us as an industry.”

“We announced the merger with Teck, to form ‘Anglo-Teck’. This will be a global minerals family – based right here in Vancouver,”  McCulley said. That’s something we all can be proud of.” 

As part of the strategy, the company plans to invest $300 million over five years in exploration and technology in Canada, establish a $100 million global institute for critical minerals research, and continue supporting the junior mining ecosystem, McCulley said.

“Discovery is about more than finding ore bodies,” he said. “It’s about creating enduring economic, environmental and social value for future generations.”

Thursday, November 27, 2025

CTHULHU STUDIES

Vampires in the deep: An ancient link between octopuses and squids



A 'genomic living fossil' reveals how evolution of octopuses and squids diverged more than 300 million years ago






University of Vienna

The vampire squid (Vampyroteuthis sp.) is one of the most enigmatic animals of the deep sea. 

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The vampire squid (Vampyroteuthis sp.) is one of the most enigmatic animals of the deep sea.

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Credit: Steven Haddock_MBARI




In a study now published in iScience, researchers from the University of Vienna (Austria), National Institute of Technology - Wakayama College (NITW; Japan), and Shimane University (Japan) present the largest cephalopod genome sequenced to date. Their analyses show that the vampire squid has retained parts of an ancient, squid-like chromosomal architecture, and thus revealing that modern octopuses evolved from squid-like ancestors.

The vampire squid (Vampyroteuthis sp.) is one of the most enigmatic animals of the deep sea. With its dark body, large eyes that can appear red or blue, and cloak-like webbing between its arms, it earned its dramatic name – although it does not suck blood, but feeds peacefully on organic detritus. "Interestingly, in Japanese, the vampire squid is called "kōmori-dako", which means 'bat-octopus'", says one of three lead PIs of this project, Masa-aki Yoshida, Shimane University. Yet its outward appearance hides an even deeper mystery: despite being classified among octopuses, it also shares characteristics with squids and cuttlefish. To understand this paradox, an international team led by Oleg Simakov from the University of Vienna, together with Davin Setiamarga (NITW) and Masa-aki Yoshida (Shimane University), has now decoded the vampire squid genome.

A glimpse into deep-sea evolution

By sequencing the genome of Vampyroteuthis sp., the researchers have reconstructed a key chapter in cephalopod evolution. "Modern" cephalopods (coleoids) – including squids, octopuses, and cuttlefish – split more than 300 million years ago into two major lineages: the ten-armed Decapodiformes (squids and cuttlefish) and the eight-armed Octopodiformes (octopuses and the vampire squid). Despite its name, the vampire squid has eight arms like an octopus but shares key genomic features with squids and cuttlefish. It occupies an intermediate position between these two lineages – a connection that its genome reveals for the first time at the chromosomal level. Although it belongs to the octopus lineage, it retains elements of a more ancestral, squid-like chromosomal organization, providing new insight into early cephalopod evolution.

An enormous genome with ancient architecture

At over 11 billion base pairs, the genome of the vampire squid is roughly four times larger than the human genome – the largest cephalopod genome ever analyzed. Despite this size, its chromosomes show a surprisingly conserved structure. Because of this, Vampyroteuthis is considered a "genomic living fossil" – a modern representative of an ancient lineage that preserves key features of its evolutionary past. The team found that it has preserved parts of a decapodiform-like karyotype while modern octopuses underwent extensive chromosomal fusions and rearrangements during evolution. This conserved genomic architecture provides new clues to how cephalopod lineages diverged. "The vampire squid sits right at the interface between octopuses and squids," says the senior author Oleg Simakov from the Department of Neurosciences and Developmental Biology at the University of Vienna. "Its genome reveals deep evolutionary secrets on how two strikingly different lineages could emerge from a shared ancestor."

Octopus genomes formed their own evolutionary highway

By comparing the vampire squid with other sequenced species, including the pelagic octopus Argonauta hians, the researchers were able to trace the direction of chromosomal changes over evolutionary time. The genome sequence of Argonauta hians ("paper nautilus"), a "weird" pelagic octopus whose females secondarily obtained a shell-like calcified structure, was also presented for the first time in this study. The analysis suggests that early coleoids had a squid-like chromosomal organization, which later fused and compacted into the modern octopus genome – a process known as fusion-with-mixing. These irreversible rearrangements likely drove key morphological innovations such as the specialization of arms and the loss of external shells. "Although it is classified as an octopus, the vampire squid retains a genetic heritage that predates both lineages," adds second author Emese Tóth, University of Vienna. "It gives us a direct look into the earliest stages of cephalopod evolution."

Revisiting cephalopod evolution

The study provides the clearest genetic evidence yet that the common ancestor of octopuses and squids was more squid-like than previously thought. It highlights that large-scale chromosomal reorganization, rather than the emergence of new genes, was the main driver behind the remarkable diversity of modern cephalopods. 

About the University of Vienna: 

For over 650 years the University of Vienna has stood for education, research and innovation. Today, it is ranked among the top 100 and thus the top four per cent of all universities worldwide and is globally connected. With degree programmes covering over 180 disciplines, and more than 10,000 employees we are one of the largest academic institutions in Europe. Here, people from a broad spectrum of disciplines come together to carry out research at the highest level and develop solutions for current and future challenges. Its students and graduates develop reflected and sustainable solutions to complex challenges using innovative spirit and curiosity.

Thursday, November 13, 2025

 

Oldest oceanic reptile ecosystem from the Age of Dinosaurs found on Arctic island






Swedish Museum of Natural History

Earliest Oceanic Tetrapod Ecosystem 

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Earliest oceanic tetrapod ecosystem from 249 million years ago. A pod of the small-bodied ichthyopterygian ('fish-lizard') Grippia longirostris hunting squid-like ammonoids (top left). The marine amphibian Aphaneramma captures the bony fish Bobastrania (foreground). The gigantic ichthyosaur Cymbospondylus lurks in the depths (bottom right). 

Fossil of these ancient marine reptiles and amphibians are today preserved on the Arctic island of Spitsbergen in the Svalbard archipelago. 

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Credit: Robert Back





The fossils were found in 2015, but took nearly a decade of painstaking work to excavate, prepare, sort, identify, and analyse. The long-awaited research findings have now been published by a team of Scandinavian palaeontologists from the Natural History Museum at the University of Oslo, and the Swedish Museum of Natural History in Stockholm.

Spitsbergen in the Svalbard archipelago is world famous for producing marine fossils from the beginning of the Age of Dinosaurs. These are preserved in rock layers that were once mud at the bottom of a sea stretching from mid-to-high palaeolatitudes and bordering the immense Panthalassa Super-ocean. Most spectacular are the remains of bizarre marine reptiles and amphibians that represent the earliest adaptive specialisation of land-living animals for life in offshore habitats.

Textbooks suggest that this landmark evolutionary event took place after the most catastrophic mass extinction in Earth History, some 252 million years ago. Termed the end-Permian mass extinction, this ‘great dying’ wiped out over 90% of all marine species, and was driven by hyper-greenhouse conditions, oceanic deoxygenation, and acidification linked to massive volcanic eruptions initiating breakup of the ancient Pangaean supercontinent.

Timing the recovery of marine ecosystems after the end-Permian mass extinction is one of the most debated topics in palaeontology today. The long-standing hypothesis is that this process was gradual, spanning some eight million years, and involved a step-wise evolutionary progression of amphibians and reptiles successively invading open marine environments. However, discovery of the new and exceptionally rich fossil deposit on Spitsbergen has now upended this traditional view.

The Spitsbergen fossil deposit is so dense that it actually forms a conspicuous bonebed weathering out along the mountainside. This accumulated over a very short geological timeframe, and therefore provides unprecedented insights into the structure of marine communities from only a few million years after the end-Permian mass extinction. Stratigraphic dating has pinpointed the age of the Spitsbergen fossil bonebed to around 249 million years ago. Careful collection of the remains from 1 m2 grids covering 36 m2 has also ensured that over 800 kg of fossils, including everything from tiny fish scales and shark teeth to giant marine reptile bones and even coprolites (fossilized feces) were recovered.

The Spitsbergen fossil bonebed reveals that marine ecosystems bounced back extremely rapidly, and had established complex food chains with numerous predatory marine reptiles and amphibians by as little as three million years after the end-Permian mass extinction. Most surprising is the sheer diversity of fully aquatic reptiles, which included archosauromorphs (distant relatives of modern crocodiles) and an array of ichthyosaurs (‘fish-lizards’) ranging in size from small squid-hunters less than 1 m long, to gigantic apex-predators exceeding 5 m in length.

A computer-based global comparative analysis of the various animal groups further highlights the Spitsbergen fossil bonebed as one of the most species-rich marine vertebrate (backboned animal) assemblages ever discovered from the dawn of the Age of Dinosaurs. It also suggests that the origins of sea-going reptiles and amphibians are much older that previously suspected, and likely even preceded the end-Permian mass extinction. This ‘ecosystem reset’ would have opened new feeding niches, and ultimately, laid the foundations for modern marine communities as we know them today.

The paper is published as a cover feature in the prestigious international journal Science. Ancient marine reptile fossils from Svalbard are on public display at the University of Oslo Natural History Museum and Swedish Museum of Natural History.

Reference

Roberts, A.J., Rucinski, M., Kear, B.P., Hammer, Ø., Engelschiøn, V.S., Scharling, T.H., Larsen, R.B., and Hurum, J.H. (2025). Earliest oceanic tetrapod ecosystem reveals rapid complexification of Triassic marine communities. Science.

Contact information

Aubrey Roberts (lead author): a.j.roberts@nhm.uio.no

Benjamin Kear (co-author): benjamin.kear@nrm.se, +46708245679

Jørn Hurum (co-author): j.h.hurum@nhm.uio.no