Sudden Glacier Collapse, Fastest Ever

Robert Hunziker

March 6, 2026

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Image by Robert Wong.

Hektoria Glacier (Antarctica) retreated 8 kilometers (5 miles) in only two months; one-half of the structure collapsing in record time. This is the fastest glacier collapse ever, and the message to the world is very clear: Global Warming looks like it’s ahead of schedule. (Antarctica Just Saw the Fastest Glacier Collapse Ever Recorded, ScienceDaily d/d February 26, 2026)

The world climate system is starting to unravel faster than expected. Sea level rise estimates by major institutions such as the IPCC should probably be tossed out the window. Global warming is not waiting around for guesstimates. Hektoria Glacier is real time evidence that the consequences of global warming are ahead of expectations.

A few more warnings like this and the mayors of mega-coastal cities New York, London, Manila, Tokyo, Shanghai, Mumbai, Lagos, Jakarta, Karachi, Buenos Aires, Rio de Janeiro, Guangzhou, Osaka, Istanbul will demand answers, red-faced, pounding the table with clenched fists, as to why countries like the United States ignorantly promote fossil fuels, kill climate science, and destroy clean renewable policies when nearly 100% of the world’s scientists agree fossil fuels are the primary cause of destructive global warming. “More than 99.9% of peer-reviewed scientific papers agree that climate change is mainly caused by humans, according to a new survey of 88,125 climate-related studies.” (Cornell Chronicle)

According to ScienceDaily: “Antarctica’s Hektoria Glacier stunned scientists by retreating eight kilometers in just two months, with nearly half of it collapsing in record time… Satellite and seismic data captured the dramatic chain reaction in near real time. The findings raise concerns that much larger glaciers could one day collapse just as quickly.”

Indeed, scientists were taken aback: “When we flew over Hektoria… I couldn’t believe the vastness of the area that had collapsed,’ said Naomi Ochwat, lead author and CIRES postdoctoral researcher. ‘I had seen the fjord and notable mountain features in the satellite images, but being there in person filled me with astonishment at what had happened,” Ibid.

According to senior research scientist Ted Scambos, University of Colorado/Boulder: “Hektoria’s retreat is a bit of a shock — this kind of lightning-fast retreat really changes what’s possible for other, larger glaciers on the continent… If the same conditions set up in some of the other areas, it could greatly speed up sea level rise from the continent,” Ibid.

In a very real sense, the Hektoria incident is fortuitous because the glacier is only 115 square miles, or roughly the extent of a large city, not one of the large glaciers. It therefore gives scientists a solid glimpse of a new danger, meaning, this is real time evidence, if large glaciers collapse as quickly as Hektoria did, then global sea level rise could be severe, catching the world unaware, unprepared. As such, according to polar scientists, Hektoria is a commanding siren signal to get off fossil fuels as soon as possible.

According to a recent Antarctic study by the prestigious Potsdam Institute For Climate Impact Research d/d Feb. 16, 2026:”Ricarda Winkelmann, just returning from several weeks of fieldwork in Antarctica, adds that seeing how rapidly some regions in Antarctica are already responding to anthropogenic climate change, how extreme weather events are not only becoming more frequent but lead to subsequent changes in the ice dynamics, really puts into perspective the vulnerability of this vast ice sheet. Our mapping of potential regional tipping points shows where the greatest risks lie on the long term, and which regions of the Antarctic Ice Sheet need closest monitoring. Cutting greenhouse gas emissions rapidly is imperative to prevent further destabilization of ice basins.”

Polar scientists have gone public about acceleration of Antarctica’s glaciers for a couple of years now and have issued warnings to the public about the tenuousness of the situation, to wit: In August 2024 at the 11^th Scientific Committee on Antarctic Research held in Pucón, Chile attended by 1,500 scientists: “Antarctica’s glacial melt is advancing faster than ever before in recorded history.”

Gino Casassa, PhD, an attendee glaciologist Head of the Chilean Antarctic Institute stated: “Based upon current trends, sea levels will be up 13 feet by 2100,” which begs the obvious question of the level by 2035-40, assuming Dr. Casassa is correct, after all, 13 feet won’t all happen in 2099 (there’s no public record of any other scientists with such an aggressive forecast).

Additionally. in November 2024, 450 polar scientists held an emergency meeting at the Australian Antarctic Research Conference to announce, via a press release: “If we don’t act, and quickly, the melting of Antarctica ice could cause catastrophic sea level rise around the globe within our lifetimes.” Moreover, “we’ve found immense global warming induced shifts in the region.” This was an appeal to the general public to take preventative measures: “Drastic action is necessary… CO2 emissions must stop.”

“Antarctica is melting ice more than six times faster than it was 20 years ago, according to satellite imagery… Runaway ice loss causing rapid and catastrophic sea-level rise is possible within our lifetimes. Our societies must set and meet targets to ‘bend the carbon curve’ as quickly as possible.” (Australian Antarctic Research Conference, 2024)

Large Methane Leaks Discovered in Antarctica, Polar Journal d/d March 2025

In March 2025, a Spanish scientific expedition announced discovery of “large scale” methane CH4 plumes erupting from the ocean floor off the coast of the Antarctic Peninsula.  “Methane has a high climate impact, which is 20 to 40 times higher than that of carbon dioxide. If large quantities of the gas were released, this could contribute significantly to global warming – to an extent not yet taken into account by climate models,” Ibid. One member of the expedition said: “It could be an environmental bomb for the climate.”

As for the above-mentioned scientists, the Hektoria Incident is most likely not a complete surprise other than the surprising rapidity of collapse, which concerns polar scientists a lot. In fact, it follows in the footsteps of the warnings they’ve issued over past years.

Significant Terrestrial Glacier Meltdown Underway

But the dangers of unanticipated sea level rise may be even worse yet. Far beyond Antarctica, a massive worldwide terrestrial glacial meltdown is underway that also directly impacts sea level rise, a threat not included in most analyses of potential sea level rise.

A 20-year study by 35 international teams of worldwide terrestrial glacier meltdown published in Nature (February 2025 issue) claims terrestrial glacier loss is “greater than Greenland and Antarctica.” The study discovered “staggering volumes of ice loss,” e.g., 273B tons ice loss per year over a 20-year study. Of concern, momentum is accelerating. For example, the first half of the study, or 10-years, registered 231B tons per year. The second half registered 314B tons/year or an increase of nearly 40% acceleration. The study identifies future risks as “entire countries erased” via sea levels rising much higher/faster and GLOFs (glacial lake outbursts floods). (World’s Glaciers Melting Faster Than Ever Recorded, BBC d/d Feb. 19, 2025)

There are already examples of erasure of communities, for example, on May 28, 2025 the Swiss village of Blatten was buried by ice and mud following collapse of the Birch Glacier. This is the impact of GLOF. And a GLOF June 3, 2025, in Gilgit-Baltistan, Pakistan completely destroyed homes in six villages.

The Third Pole Hotspot

Of special concern, according to a UN study, Glacial Lake Outburst Floods: A Growing Climate Threat: The Third Pole is the world hotspot for GLOF risks. “The Hindu Kush Himalaya (HKH) region, comprising the mountains of Afghanistan, Pakistan, India, China, Nepal, Bhutan, Bangladesh and Myanmar, contains the largest concentration of snow and glaciers outside the Polar regions and is therefore called the ‘Third Pole’. This region is a global hotspot for GLOF risks. Between the mountains themselves and the valleys downstream, around two billion people are exposed to these risks.”

Therefore, it is not at all surprising that both China and India are taking a diametrically opposite approach to the United States on global warming, fighting it, embracing renewables. When GLOFs intensify, one has to wonder whether China and India will demand a scientific-based explanation from the United States regarding its careless overarching promotion of fossil fuels and destruction of climate science/renewables. Oops! That may not be possible as the U.S.is ditching environmental science, so it may not have the data base still available to provide a science-based answer.

Ever since the first major scientific study (early 1990s) officially connecting the dots of fossil fuel emissions to global warming, it seems as if scientific warnings have been echoing in an enormous vast empty chamber, silently haunting the future. (Of historical note: Eunice Newton Foote first discovered the CO2 connection to global warming in 1856) Now, it has been three decades that nations of the world have mostly ignored scientists’ warnings. As of today, those echoes 0f the past are becoming real by coming home to roost, and it’s not a pretty picture; it’s much worse than the all of warnings of the past 30 years.

Robert Hunziker lives in Los Angeles and can be reached at rlhunziker@gmail.com.

 

The Unbreakable Message

Quantum communication is no longer a physics thought experiment. It’s being deployed right now, and it’s going to change who controls secrets, who wins wars, and who you can trust online.

by Robert Malone / March 4th, 2026

There is a physics rule that changes everything about how we think about secrets. It goes like this: you cannot observe a quantum system without disturbing it. Not because our instruments are clumsy. Not because we haven’t built good enough technology yet. Because the universe, at its most fundamental level, does not allow it.

This sounds like an obscure footnote in a physics textbook. It is not. It is the foundation of a communications revolution that is quietly unfolding right now, one that promises to make certain kinds of messages genuinely, physically impossible to intercept without detection. Not hard to intercept. Not expensive to intercept. Impossible to intercept.

Governments know this. China has already built a 2,000-kilometer quantum communication network between Beijing and Shanghai, and in 2017 demonstrated satellite-based quantum communication over 1,200 kilometers.¹ The European Union has a continent-wide quantum network in development. The United States, Japan, South Korea, and the UK all have major national programs running. Banks in Europe and Asia have piloted quantum-secured trading links. The technology exists. It works. The question is no longer whether quantum communication reshapes the world, but when and on whose terms.

So let’s talk about what this actually is, who it matters to, and why you should be paying attention even if you have never thought about a photon in your life.

The physics, explained without the physics

Every time you send a message today, whether it’s a text, a bank transfer, or a classified government cable, it gets scrambled using mathematics. The scrambling is based on mathematical problems that are very hard to solve, specifically, factoring enormous numbers into their prime components. Break the math, and you read the message. This is the foundation of essentially all modern encryption.

The problem is that “very hard” is not the same as “impossible.” It just means that today’s computers would take longer than the age of the universe to crack the code. Tomorrow’s computers might not. And right now, governments and intelligence agencies around the world are almost certainly storing encrypted communications they’ve intercepted, banking on the possibility that a sufficiently powerful quantum computer, once built, will let them reach back through time and read messages that were sent years or decades ago.

Security researchers have a name for this: harvest now, decrypt later. It is not paranoia. It is a rational strategy that any serious intelligence service would pursue.

Quantum communication offers a fundamentally different kind of security that doesn’t rely on mathematics at all. It relies on physics. Three ideas are at the heart of it.

The first is quantum superposition. A normal computer bit is either a zero or a one. A quantum bit, called a qubit, can be both simultaneously, until the moment you measure it, at which point it settles into one or the other. Think of it like a coin spinning in the air. It’s not heads or tails yet. It’s both.

The second is quantum entanglement. Two particles can be linked in such a way that measuring one instantly determines the state of the other, no matter how far apart they are. Einstein called this “spooky action at a distance” and spent years refusing to believe it was real. Decades of experiments have confirmed that it is.² When you measure one entangled particle, its partner responds instantly, across any distance.

Einstein called it “spooky action at a distance.” Decades of experiments have confirmed that it is very real, and very useful.

The third is the no-cloning theorem, which states that you cannot perfectly copy an unknown quantum state. This one sounds technical but its implications are enormous: if you intercept a quantum message and try to read it, you have to measure the quantum particles carrying that message, and the act of measuring changes them. The message arrives at the other end subtly altered, and the people communicating know immediately that someone was listening.

Put these three things together, and you get Quantum Key Distribution, or QKD, the core technology of quantum communication. Instead of relying on mathematical complexity to protect a secret key, QKD relies on physics. Alice and Bob, as cryptographers conventionally call the two parties communicating, exchange individual photons, particles of light, to generate a shared secret key. If Eve, the eavesdropper, intercepts those photons to measure them, she inevitably disturbs them. Alice and Bob detect the disturbance. They throw out the compromised key and try again. Eve gets nothing.

The first QKD protocol, known as BB84, was proposed by Charles Bennett and Gilles Brassard in 1984.³ It took decades to go from a theoretical proposal to working hardware. That hardware now exists and is being deployed. Commercially. Today.

THE KEY ENGINEERING PROBLEM

Photons carrying quantum information are absorbed and scattered as they travel through fiber-optic cable. Classical systems solve signal loss by amplifying the signal at intervals, but you cannot amplify a quantum state without copying it, which the no-cloning theorem forbids. “Quantum repeaters,” devices that extend the range of quantum networks using entanglement swapping and quantum memory, are the central unsolved engineering challenge. Most experts expect them to mature within a decade, at which point the range limitations that currently restrict quantum networks will largely disappear.

Why militaries are racing to deploy this

If you want to understand who is taking quantum communication most seriously, look at who is spending the most money on it. The answer is the same institutions that have always cared most about the integrity of secret messages: militaries and intelligence agencies.

The nuclear problem

The most consequential application is one that almost nobody publicly discusses: securing nuclear command-and-control systems. The communications chain between a national leader and nuclear forces must work flawlessly under any circumstances, including a decapitation strike, and must be impossible to fake or intercept. A spoofed launch order is among the worst imaginable scenarios in international security. A quantum-secured nuclear command network would provide a layer of physical assurance that classical encryption, which relies on mathematical complexity, cannot match.

The submarine problem

Communicating with submarines is one of the oldest unsolved problems in naval warfare. Current very-low-frequency radio systems are slow, have limited bandwidth, and emit signals that can be detected. Researchers are investigating quantum optical channels using blue-green wavelengths of light, which penetrate seawater, as well as satellite-to-submarine quantum links. The strategic value of maintaining covert, reliable, quantum-secured communication with ballistic missile submarines, platforms whose entire purpose is to be undetectable, is obvious.

The “harvest now, decrypt later” arms race

Every major intelligence service is almost certainly recording encrypted communications today that they cannot yet read, hoping that advances in quantum computing will eventually let them crack the encryption retroactively. This is a race with an uncertain finish line. Quantum communication sidesteps the race entirely. A message transmitted via QKD cannot be harvested for later decryption, because any interception is immediately detected and the key is discarded. Nations that move their most sensitive communications onto quantum networks first gain a permanent, physics-guaranteed communications advantage over those that don’t.

Sensing the invisible

Quantum communication’s military significance extends beyond sending messages. Related quantum technologies promise to detect things that are currently invisible. Quantum-enhanced radar using entangled photons can detect objects with sensitivity beyond classical radar, with potential applications against stealth aircraft. Quantum gravimeters can detect submarines, underground bunkers, and tunneling activity through subtle gravitational signatures, without emitting any detectable signal. Quantum inertial navigation provides GPS-accurate positioning without GPS itself, which is vulnerable to jamming and spoofing. Several militaries have demonstrated operational prototypes of these systems. They are not theoretical.

Nations that move their most sensitive communications onto quantum networks first gain a permanent, physics-guaranteed advantage over those that don’t.

What this means for the rest of us

Quantum communication will not stay in the hands of militaries and governments. The same technology that secures launch codes eventually secures everything else. Here is where it goes next.

Your money

Financial institutions were among the first civilian adopters of QKD technology, for the obvious reason that they move enormous amounts of money over networks that are constantly under attack. Several European and Asian banks have completed QKD pilot programs for high-value interbank transactions. Central Bank Digital Currencies, which dozens of governments are actively developing, will need communication security that cannot be undermined by future quantum computers. QKD is the natural fit.

Your medical records

Genomic data is uniquely personal and permanently sensitive. Unlike a compromised password, you cannot change your DNA. The same is true of much medical information. As hospitals, research institutions, and pharmaceutical companies share increasingly sensitive data across networks, the case for quantum-secured medical communications becomes harder to dismiss. Attacks on hospital networks are already a routine feature of the threat landscape. Quantum communication offers a way to significantly reduce their reward.

The power grid, the water supply, and the internet itself

Real-world cyberattacks on power infrastructure in Ukraine and water treatment facilities in the United States have demonstrated that critical infrastructure is genuinely vulnerable. The control systems managing these facilities, known as SCADA systems, communicate over networks that are poorly secured by most conventional standards, let alone quantum ones. Quantum-secured communication links between control centers and field equipment would add a layer of protection that is physically guaranteed rather than dependent on software patches and mathematical assumptions.

A different kind of internet

The most transformative long-term vision is the quantum internet: a global network layer that distributes entanglement between nodes, enabling quantum-secured communication between any two points on Earth. This would not replace the classical internet but would add a quantum layer that changes the security architecture of global communications fundamentally. Researchers have demonstrated small quantum networks in city-scale experiments. The path to a global quantum network runs through the quantum repeater problem, and most researchers expect that problem to be solved within the next decade.⁴

When that happens, the most exciting possibility is not just secure communication. It is distributed quantum computing: quantum processors in different cities, connected by quantum networks, sharing entanglement to perform calculations that no single machine could execute. The implications for drug discovery, materials science, climate modeling, and artificial intelligence are difficult to overstate.

The geopolitics nobody is talking about

There is a quiet competition underway that deserves more public attention than it receives. China has made quantum communication a national strategic priority in a way that few other countries have matched. The Beijing-to-Shanghai network is operational. The Micius satellite is flying. Chinese research output in quantum communication has grown dramatically over the past decade.

The United States has responded with significant DARPA investment and a classified set of programs whose scope is unknown. Europe is building the EuroQCI network across member states, aiming for operational capability by the late 2020s.⁵ Japan, South Korea, Singapore, and the UK all have serious national programs.

What is at stake in this competition is not merely communications security for individual governments. It is the architecture of the global information environment for the coming century. Whichever nations establish their quantum networks first, develop compatible standards, and build the infrastructure that others depend upon will have a structural advantage analogous to the advantage the United States gained by building the backbone of the early internet.

The risk of fragmentation is real. If Chinese and Western quantum network standards develop in isolation, the result could be a quantum communication divide that mirrors and deepens existing geopolitical fault lines, a world in which Beijing’s quantum network and Washington’s quantum network are incompatible, and nations must choose sides not just politically but technologically.

What comes next, and when

Quantum communication won’t appear on your smartphone next year. The hardware is still expensive, the range without repeaters is limited, and the data rates are low. For now, QKD handles key exchange rather than high-bandwidth data transmission, which means it works alongside classical encryption rather than replacing it.

But the trajectory is clear, and it follows the same curve as every disruptive, transformative technology before it. First, deployment at high-value, fixed strategic links where cost is not the primary consideration: national command authorities, financial institution interconnects, nuclear facilities. Then, as hardware miniaturizes and quantum repeater technology matures, expansion to a wider range of government and commercial users. Then, over the longer horizon, something approaching ubiquity.

The honest timeline for widespread consumer quantum communication is probably two to three decades. The timeline for quantum communication to become a defining feature of strategic competition between major powers is already here. The race is on.

The physics is real. And the message that cannot be intercepted is closer than most people realize.

ENDNOTES:

• 1
  Juan Yin et al., “Satellite-Based Entanglement Distribution over 1200 Kilometers,” Science 356, no. 6343 (2017): 1140-1144.
• 2
  John Bell, “On the Einstein Podolsky Rosen Paradox,” Physics 1, no. 3 (1964): 195-200. 
• 3
  Charles H. Bennett and Gilles Brassard, “Quantum Cryptography: Public Key Distribution and Coin Tossing,” in Proceedings of IEEE International Conference on Computers, Systems, and Signal Processing (New York: IEEE, 1984), 175-179.
• 4
  Stephanie Wehner, David Elkouss, and Ronald Hanson, “Quantum Internet: A Vision for the Road Ahead,” Science 362, no. 6412 (2018): eaam9288.
• 5
  European Commission, “European Quantum Communication Infrastructure (EuroQCI),” Digital Strategy, 2023.

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Robert W Malone MD, MS is president of the Malone Institute whose mission is to bring back integrity to the biological sciences and medicine. The Malone Institute supports and conducts research, education, and informational activities. Contact: info@maloneinstitute.org. Read other articles by Robert, or visit Robert's website.

The Dark Horse That Could Deliver the World's First Fusion Reactor

By Haley Zaremba - Mar 04, 2026

• Germany has become a surprising dark horse in the race for commercial nuclear fusion by committing €1.7 billion in funding to build the world's first commercial fusion reactor.
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• German company Proxima Fusion is partnering with the Free State of Bavaria, RWE, and Max Planck Institute for Plasma Physics to build a stellarator fusion power plant aimed at demonstrating net energy gain.
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• The race for commercial fusion is increasingly moving toward public-private partnerships, driven by the accelerating need for energy, partially fueled by the AI boom.
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The race is on to achieve commercial nuclear fusion. While the technology was first conceptualized a full century ago, the ambition to replicate the process that powers our sun here on Earth has only recently exited the realm of sci-fi ambitions into reality. Fueled in part by the accelerating need for energy thanks to the AI boom, nuclear fusion is receiving more attention and investment dollars than ever before, and breakthroughs are starting to pile up. While China and the United States are leading the charge in a high-stakes battle for commercial fusion supremacy, a surprising dark horse may be about to take the lead.

Germany has taken major steps forward in the development of what could soon be commercially viable nuclear fusion facilities in the past few years. In 2025, German Chancellor Friedrich Merz unveiled new action plan for the nation’s energy industry, which included €1.7 billion ($1.98 billion) in funding to build the world’s first commercial nuclear fusion reactor. This ambition comes as a surprise, as Germany has long been one of the world’s staunchest and most vocal opponents of nuclear (fission) energy. 

But Germany, Europe’s largest economy, needs to be bold if it wants to meet its own decarbonization goals. Sarah Klein, commissioner for fusion research at the Fraunhofer Institute for Laser Technology in Aachen, told DW last October that investing in fusion technology is a "smart long-term strategic bet” that “keeps Germany at the forefront of a global technology race.” She added that in tandem with renewable energy development, nuclear fusion is “crucial for ensuring energy sovereignty after the phaseout of fossil fuels.”

Related: Trump’s Secret Weapon in the Rare Earth War

And now, Germany’s ambitious plan is already coming together. German company Proxima Fusion has signed on to help build the first stellarator fusion power plant in Europe. The firm inked a Memorandum of Understanding with the Free State of Bavaria, RWE, and Max Planck Institute for Plasma Physics (IPP) that lays out a roadmap for achieving commercial fusion as soon as possible. When the stellarator becomes operational in the coming decade, Proxima Fusion has stated that it will be the first stellarator to demonstrate net energy gain, the most critical breakthrough point for modern fusion models.

Francesco Sciortino, co-founder and CEO of Proxima Fusion, says that the deal “marks the starting point of an industrial ecosystem that consolidates existing and new know-how in Europe and anchors value creation here. This marks the beginning of a long-term industrial growth trajectory over the coming decades, creating new export opportunities for Germany and Europe.”

Not only would this mark a major win for Germany and for Europe in the fusion wars, it would be a win for a new fusion landscape characterized by public-private partnerships. Until recently, nuclear fusion research was such a lofty and expensive undertaking that only deep-pocketed governments could possibly fund prototypes to further research and development in the field. But the race for commercial nuclear fusion has increasingly gone private in recent years as Wall Street gets involved and startups begin to diversify the field. 

Related: The U.S. Just Took a Giant Step in The Rare Earth Race With China

“The potential of fusion technology for the energy supply of the future is enormous. Thanks to an excellent research landscape and the start-ups that have emerged from it, such as Proxima Fusion, Germany can take on a key role,” Dr. Markus Krebber, CEO of RWE, was recently quoted by Interesting Engineering. 

“That is why it is good that the federal and state governments are jointly pushing this topic forward in order to build the world’s first commercial fusion power plant in Germany. We at RWE are happy to support this. Our decommissioning site, with its existing infrastructure combined with our operational expertise, offer ideal conditions to give Germany time and cost advantages in international competition.”

If Germany achieves commercial fusion before any other country, it will be a major upset to what has largely been a race between the United States and China. The two global superpowers have been trading off fusion breakthroughs for years now, and both Donald Trump and Xi Jinping are eager to establish dominance in the sector. But while China and the United States have gotten all the spotlight, Europe’s slow and steady approach may very well win in the end. 

By Haley Zaremba for Oilprice.com