💫
Veron Wickramasinghe
NEW YEAR’S EVE ON THE GULF OF FINLAND
At 4:53 a.m. on December 31, 2025, a Finnish telecommunications company called Elisa detected a data disruption on one of its fibre-optic cables running along the floor of the Baltic Sea from Helsinki to Tallinn. The company alerted the Finnish Border Guard’s operations centre. Within hours, the Border Guard, customs authorities, the Finnish Defence Forces, and the Finnish Safety and Chemicals Agency had all been mobilized. President Alexander Stubb released a statement: Finland is prepared for a range of security challenges and will respond as required.
Finnish special forces fast-roped from a helicopter onto the deck of a cargo vessel called the Fitburg. The ship was flagged in St. Vincent and the Grenadines, managed by a Turkish company called Albros Shipping, crewed by nationals of Russia, Georgia, Azerbaijan, and Kazakhstan, and was transiting from St. Petersburg to Israel. Its anchor had been dragging across the seabed. Inspectors found sanctioned Russian steel in the hold. Two crew members were arrested. Two more were banned from leaving Finland.
The Fitburg was the fourth named vessel in 14 months to be intercepted in the Baltic Sea on suspicion of severing undersea infrastructure. Before it, there was the Eagle S, a Cook Islands-flagged shadow-fleet tanker that dragged its anchor 90 kilometres across the Gulf of Finland on Christmas Day 2024, cutting the Estlink 2 power cable and four telecom lines. Before that, the Yi Peng 3, a Chinese-flagged bulk carrier that severed two data cables connecting Sweden to Lithuania and Finland to Germany in November 2024. Before that, the Newnew Polar Bear, a Chinese-owned vessel that destroyed the Balticconnector gas pipeline and a Swedish-Estonian data cable in October 2023.
Since October 2023, roughly 10 to 11 undersea cables and pipelines have been severed or damaged in the Baltic Sea alone. Seven of those incidents occurred in a 3-month window between November 2024 and January 2026. The frequency is accelerating.
On January 14, 2025, NATO Secretary General Mark Rutte launched Combined Task Force Baltic Sentry at a summit in Helsinki. On February 5, 2026, the European Commission introduced a 347 million euro subsea infrastructure initiative, the largest EU-level investment in cable protection to date.
The Fitburg incident occurred after both.
The Baltic Sea, a shallow, narrow body of water accessible through three Danish chokepoints, has become what the Bulletin of the Atomic Scientists calls ground zero for targeting critical undersea infrastructure. But the Baltic is not the story. The Baltic is the proving ground.
The story is that the world built a $100 trillion digital economy on approximately 600 submarine fibre-optic cable systems, bundles of glass no thicker than a garden hose, lying largely unburied on the deep ocean floor. These cables carry 99% of intercontinental data traffic and an estimated $10 to $22 trillion in financial transactions every working day. They are built by 4 manufacturers, repaired by roughly 60 ships, and effectively unguarded by any nation on Earth.
Somebody just started cutting them.
This is The Severed Web.
ONE NUMBER THAT TELLS THE STORY
Start with one number, because one number tells the entire story.
$10 trillion. That is the estimated value of financial transactions that cross submarine cables every single working day, per TeleGeography, the industry-standard data provider for undersea cable infrastructure. The Center for Strategic and International Studies, in an April 2025 analysis, puts the figure higher: $22 trillion per workday, citing the International Cable Protection Committee. A single major international bank moves an average of $3.9 trillion through submarine cable systems every working day, per ICPC data cited by CSIS.
That money moves through glass.
According to TeleGeography’s 2025 Submarine Cable Map, 597 cable systems and 1,712 landing points are currently active or under construction, with the total exceeding 600 by early 2026. Total cable length: over 1.5 million kilometres, roughly 3 to 4 times the distance to the Moon. The cables carry over 99% of intercontinental data traffic. The Congressional Research Service states cables carry about 95% of international internet traffic and 99% of transoceanic digital communications. The remaining fraction of a percent goes by satellite.
Now look at the supply chain that maintains this infrastructure. Roughly 98% of submarine cables are manufactured and installed by 4 companies: SubCom in the United States, Alcatel Submarine Networks in France (now part of Nokia), NEC in Japan, and HMN Technologies in China (formerly Huawei Marine Networks). Approximately 60 cable ships exist worldwide. Most are 20 to 40 years old. The oldest vessel in service, Finland’s Telepaatti, dates to 1978. Africa’s primary repair vessel, the Léon Thévenin, is 43 years old. The global median repair time for a severed submarine cable is approximately 40 days.
60 ships. For the entire planet’s internet. With a median repair time of 40 days.
The International Cable Protection Committee reported over 170 repairs worldwide in 2025, nearly 4 per week. Roughly 150 to 200 cable faults occur annually, the vast majority caused by fishing trawlers and ship anchors. Each repair costs between $1 million and $3 million.
Now combine those numbers. $10 to $22 trillion per day in financial transactions. 99% of intercontinental data. 600 cable systems. 60 repair ships. 40-day median repair. 4 manufacturers. 170-plus faults per year.
The world has built the most valuable infrastructure in human history and staffed its entire maintenance operation with a fleet you could fit in a single harbour.
Tim Stronge, chief researcher at TeleGeography, told a US House Homeland Security subcommittee in November 2025 that the network’s strategic importance boils down to three characteristics: these cables are vulnerable, they are critical, and they are irreplaceable.
Read that last word again. Irreplaceable. Not “important.” Irreplaceable.
WHAT WALL STREET IS MISSING
The mainstream consensus treats each cable-cutting incident as an isolated news event. A Reuters headline. A NATO statement. A diplomatic protest. Then the news cycle moves on to the next thing.
The consensus is missing that these are not separate events. They are data points in an accelerating pattern of hybrid warfare targeting the physical layer of the digital economy, and the vulnerability extends far beyond the Baltic into every ocean where cables cross geopolitical fault lines.
The Baltic Sea is the proving ground. Taiwan is the strategic target. The Red Sea is the stress test. The financial system, the AI revolution, military communications, and the global internet all run through the same unguarded glass fibres, and adversaries have discovered they can attack those fibres with plausible deniability and near-total legal impunity.
Nobody on financial television, nobody on X, nobody in the sell-side research stack has written the unified structural piece that connects all four domains into a single argument. The defence analysts cover the Baltic. The tech analysts cover the AI cables. The geopolitical analysts cover Taiwan. The financial analysts cover market infrastructure. None of them are talking to each other. None of them have mapped the common physical layer.
That common physical layer is a garden hose lying on the ocean floor, and somebody has figured out that an anchor is all it takes to cut it.
Elisabeth Braw of the Atlantic Council captured the strategic frame: cable sabotage could become our era’s blockade, and unlike past generations’ blockades, it can be conducted on the sly.
Erin Murphy of CSIS put the financial stakes in plain language: if you cut a cable, you can cut off multiple countries from internet access, and that includes financial transactions, banking, e-commerce, and basic communications.
Johannes Peters of the Center for Maritime Strategy and Security at Kiel University named the military consequence: in an early stage of a conflict, disrupting these cables would be one of Russia’s main tactics.
Three different analysts. Three different domains. One physical layer.
The consensus is treating the Baltic as a regional security story, Taiwan as a geopolitical scenario, the Red Sea as a shipping disruption, and the financial system as unrelated to all of them. They are the same story. The story is the cable.
THE FRAGILE WEB
Here is the concept at the heart of this entire piece, and once you see it, you cannot unsee it.
The internet was designed to survive nuclear war. In 1969, ARPANET was built with distributed routing specifically so that the destruction of any single node would not bring down the network. Packets would find another path. Redundancy was the foundational architecture. The entire mythology of the internet rests on the idea that it cannot be severed because it is everywhere.
That mythology is a lie.
The logical layer of the internet is distributed. The physical layer is not. The physical layer is concentrated in approximately 600 cable systems that converge at a handful of chokepoints: the Strait of Malacca, the Bab-el-Mandeb, the Suez Canal, the English Channel, the Danish Straits, and the waters around Taiwan. At each chokepoint, multiple cables run in parallel, sometimes within a few kilometres of each other. A single vessel dragging an anchor at the right chokepoint can sever multiple cables in a single pass. The Yi Peng 3 is alleged to have done exactly this in November 2024, damaging two cables 100 nautical miles apart.
The internet is a distributed network masquerading as invulnerability on top of a concentrated physical layer that is astonishingly fragile. The routing protocols reroute traffic within seconds when a cable goes down. The repair takes 40 days. The gap between those two numbers, seconds to reroute and 40 days to repair, is where the vulnerability lives. Rerouting works when one cable fails. It degrades when two fail. It collapses when the backup routes pass through the same chokepoint that was targeted in the first place.
This is what happened in the Red Sea in February 2024. Three major cables, SEACOM/TGN-EA, EIG, and AAE-1, were cut near the Bab-el-Mandeb Strait, most likely by the anchor of the UK-owned cargo ship Rubymar, which had been struck by a Houthi missile and was drifting with its anchor deployed before sinking. Hong Kong telecom operator HGC Global Communications initially estimated that 25% of traffic between Asia and Europe had been impacted. Network operator RETN later assessed the disruption at closer to 70% of Europe-Asia data flow. Rerouting around the Cape of Good Hope added 100 to 150 milliseconds of latency. Repairs were delayed up to 8 weeks by Yemeni permitting and danger to repair crews.
At least 15 cables transit the Bab-el-Mandeb. The strait is 26 kilometres wide at its narrowest point. 15 cables in 26 kilometres. That is not a distributed system. That is a bundle of threads passing through the eye of a needle.
The internet was designed to survive nuclear war.
It was not designed to survive an anchor.
THE FOUR THEATRES
The vulnerability is global. It manifests in four theatres simultaneously. Each theatre teaches a different lesson about the same underlying fragility.
The Baltic Theatre
The Baltic Sea is shallow, narrow, heavily trafficked, and now a NATO lake after Finland and Sweden joined the alliance. It hosts critical fibre-optic, power, and gas infrastructure connecting all northern flank nations. It is accessible through three chokepoints, the Great Belt, the Little Belt, and the Øresund, all in the Danish Straits. Since Russia invaded Ukraine in 2022, this body of water has become the world’s primary testing ground for infrastructure sabotage.
The timeline tells the story. September 2022: Nord Stream 1 and 2 pipelines destroyed by underwater explosions. October 2023: the Newnew Polar Bear severs the Balticconnector pipeline and the EE-S1 cable. November 2024: the Yi Peng 3 severs the BCS East-West Interlink and the C-Lion1, Finland’s only direct cable to continental Europe. December 2024: the Eagle S severs Estlink 2 and four telecom cables. December 31, 2025: the Fitburg severs the Helsinki-Tallinn cable. January 2026: the Lithuania-Latvia Arelion cable is damaged.
The pattern is consistent. A commercial vessel flying a flag of convenience drags its anchor across the seabed. The cable or pipeline is severed. The vessel is identified. Investigation begins. Attribution fails because the incident occurred in the Exclusive Economic Zone, where UNCLOS Article 97 grants jurisdiction to the flag state, not the coastal state.
On October 3, 2025, a Helsinki District Court dismissed the Eagle S case for precisely this reason. The anchor-dragging occurred in Finland’s EEZ, not in territorial waters. Under UNCLOS, the flag state, the Cook Islands, holds jurisdiction. The court ordered Finland to reimburse the defendants approximately 195,000 euros. The Estlink 2 power cable was out for more than 7 months. The repair cost up to 60 million euros. Nobody was convicted of anything.
This is the legal Achilles’ heel of the entire Western response. You cannot arrest what you cannot jurisdiction. You cannot deter what you cannot prosecute.
NATO launched Baltic Sentry to address the gap. It deploys frigates, maritime patrol aircraft, submarines, and naval drones. Germany stood up CTF Baltic in Rostock in October 2024. The UK leads a Joint Expeditionary Force tracking effort called Nordic Warden. But Baltic Sentry is deterrence-by-surveillance, not law enforcement. Secretary General Rutte declined to specify the number of assets deployed. Media reports estimate roughly 10 vessels for the entire Baltic Sea.
The Atlantic Council’s Elisabeth Braw assessed the strategy with characteristic bluntness: surveillance and monitoring are at best an educated guess. The real test will arrive if, or when, a vessel ignores patrols and coastal states’ instructions to change course.
The Taiwan Theatre
Taiwan depends on approximately 24 undersea cables, 14 international and 10 domestic, per the Global Taiwan Institute. All 15 of its international cables terminate at just 3 points on the main island. The concentration is extreme. A coordinated attack on those 3 landing sites would sever Taiwan’s digital connection to the outside world.
This is not theoretical. In February 2023, two Chinese vessels severed both cables connecting the Matsu Islands to Taiwan, 6 days apart. 14,000 residents lost effective internet for approximately 2 months. Security analysts widely interpreted this as a rehearsal.
In January 2025, the Shunxin 39, a Cameroon and Tanzania-flagged vessel controlled by Chinese interests and operated from Hong Kong, severed a Taiwan-to-Asia-to-US cable near Keelung. In February 2025, the Hong Tai 58, a Togo-flagged vessel with a Chinese crew, cut the Taiwan-Penghu cable. The captain, surnamed Wang, was sentenced to 3 years in prison in June 2025, one of the very few convictions in any cable-cutting case worldwide.
In early 2025, China’s state-owned China Ship Scientific Research Center and the State Key Laboratory of Deep-Sea Manned Vehicles disclosed a device capable of cutting cables at depths up to 4,000 metres, far beyond the reach of any fishing operation. CSIS assessed that by unveiling a new ship with the distinct purpose of cutting undersea cables, Beijing has laid bare that it regards sabotage as just another coercive move in its playbook.
The military dimension is critical. Bruce D. Jones of the Brookings Institution, writing in the Bulletin of the Atomic Scientists, noted that there are substantial US military stakes in seabed cables and infrastructure, including several layers of submarine detection sonar arrays in the First and Second Island Chains, all connected to land by cable. These would be likely targets in the early stages of any major US-China conflict.
Just Security’s assessment: if conflict erupts in the Taiwan Strait, undersea cables would likely be among China’s first targets. Because Taiwan underpins the global semiconductor supply chain through TSMC, a connectivity blackout would compound the manufacturing catastrophe with a financial one. Market transactions, military signalling, and TSMC coordination all run through the same cables.
The Red Sea Theatre
At least 15 cables transit the Bab-el-Mandeb Strait. In February 2024, the Rubymar incident damaged three major cables and disrupted 25 to 70% of Europe-Asia data flow depending on the operator measuring. In September 2025, a second event near Jeddah cut SMW4 and IMEWE, affecting India, Pakistan, and the UAE. Repairs were delayed by conflict-zone permitting.
The Red Sea connects directly to the Iran-Hormuz crisis that I wrote about in The Sulfur Trap, The Methane Trilemma, and The Tungsten Throttle. The Persian Gulf is the only alternate routing for Asia-Europe cables if the Red Sea is compromised. If both are disrupted simultaneously, there is no viable terrestrial or submarine reroute with sufficient capacity. The internet between Asia and Europe would degrade to satellite backup, which as I will demonstrate cannot carry the load.
The Financial Theatre
SWIFT, the messaging system that underpins international banking, operates from three data centres in the United States, the Netherlands, and Switzerland and uses submarine communications cables to transmit its data. Stock exchanges, clearinghouses, and settlement systems in New York, London, Tokyo, and Hong Kong are all connected by low-latency submarine fibre. High-frequency trading is acutely latency-sensitive. Even partial cable degradation that forces rerouting and adds tens of milliseconds has measurable trading consequences.
Past cable cuts have caused disruption but not systemic failure, because redundancy has absorbed the shock. The 2006 Hengchun earthquake damaged 8 cables and disrupted East Asian financial data. The 2011 Japan tsunami damaged half the transpacific network but traffic rerouted. The structural risk is not a single cable cut. The structural risk is a simultaneous multi-cable cut at a chokepoint where redundancy runs out, precisely the scenario that hybrid-warfare anchor-dragging and a Taiwan conflict are designed to produce.
Four theatres. One physical layer. The same glass threads carrying your banking, your internet, your AI, and your military’s ability to communicate. All lying on the ocean floor, repaired by 60 ships, and guarded by an educated guess.
THE HYPERSCALER BLIND SPOT
There is a fifth dimension the consensus is missing entirely, and it is the dimension that makes this a story for the next decade, not just for the next news cycle.
The ownership structure of submarine cables is undergoing the most significant shift in the history of the technology. Content providers, the hyperscalers, now own or lease roughly half of all undersea bandwidth worldwide, per TeleGeography. Paul Gabla, chief sales officer at Alcatel Submarine Networks, has stated that webscale players represent now probably 50% of the overall market. By cable count, Google is part or sole owner of approximately 33 cable systems, Meta approximately 15, Microsoft 5, Amazon 4.
Meta’s Project Waterworth, announced in early 2026, is a roughly 50,000 kilometre cable system with 24 fibre pairs and a reported price tag exceeding $10 billion. Meta’s 2Africa cable, at 45,000 kilometres connecting 33 countries, was completed in late 2025. Google operates Curie, Dunant, Grace Hopper, Equiano, Firmina, and TalayLink. AWS announced its Fastnet cable from Maryland to Ireland for 2028.
New subsea cable investment is expected to reach approximately $13 billion between 2025 and 2027, nearly double the prior 3-year window.
The driver is AI. Meta’s VP of network investments, Alex Aime, was explicit: AI is increasing the need we have for subsea infrastructure. Without the connectivity that connects those data centres, what you have are really expensive warehouses.
Every AI training run that spans multiple data centres across oceans requires sustained submarine cable bandwidth. Every cross-ocean inference query rides a submarine cable. Every cloud computation that replicates data between AWS regions, every Azure failover, every Google Cloud backup traverses the same glass threads.
Vodafone’s Owen Bryant told the Submarine Networks EMEA 2025 conference: demand of hyperscalers for their own use far outstrips the demand of individual carriers. We have to let go of the idea that the carriers will be leading the largest subsea projects.
The hyperscalers are building the cables. The hyperscalers are dependent on the cables. And the hyperscalers have no navy, no coast guard, and no legal authority to protect them. When drone strikes hit AWS data centres in the UAE on March 1, 2026, a GeoCables analysis found that Starlink handled communications for individual users at the site adequately. It could not carry hyperscaler traffic volumes between regions.
This is the gap. The companies that now own the physical backbone of the internet have no mechanism to defend it. The militaries that could defend it do not own it. The legal frameworks that govern it predate the internet itself.
THE GHOST OF THE CS ALERT
There is exactly one historical parallel that captures the strategic logic of what is happening to submarine cables right now, and it is one of the first acts of the deadliest war in human history up to that point.
On August 5, 1914, hours after Britain declared war on Germany, the British cable ship CS Alert steamed into the English Channel and cut 5 German telegraph cables connecting Germany to its overseas communications network. It was among Britain’s first military actions of the war. The operation was planned in advance and executed with precision. Its purpose was not to destroy Germany’s ability to communicate entirely, which was impossible, but to force German traffic onto channels that Britain could intercept.
The strategy worked. Forced onto wireless and through neutral cable systems, German communications became vulnerable to British intelligence. Two and a half years later, British codebreakers decrypted the Zimmermann Telegram, a German diplomatic proposal to Mexico that helped draw the United States into the war.
The parallel to 2026 is not exact, but the structural logic is identical. Cutting cables does not destroy communications entirely. It degrades them, forces rerouting, introduces latency, creates chokepoints, and above all, creates intelligence opportunities. A nation that can selectively sever or tap submarine cables can shape the information environment of its adversary without firing a shot.
Russia’s GUGI, the General Staff Main Directorate for Deep Sea Research, operates a fleet of intelligence ships, auxiliary submarines, and reconnaissance vessels capable of deep-sea cable operations, stationed at Olenya Guba off the Barents Sea. Bruce Jones of Brookings noted that Putin evidently sees these undersea infrastructures, critical and under-guarded, as an Achilles’ heel of the West. The Cold War precedent, Operation Ivy Bells, demonstrated this for 10 years: from 1971 to 1981, US submarines tapped Soviet undersea military cables in the Sea of Okhotsk before an NSA defector exposed the operation.
The CS Alert cut telegraphs. The Fitburg cut fibre optics. The technology changed. The strategic logic did not.
THE SATELLITE ILLUSION
The reflexive response to submarine cable vulnerability is: what about satellites? Starlink has 6,000-plus satellites. Amazon’s Project Kuiper is deploying. Low-earth-orbit constellations are growing rapidly. Surely they can replace cables.
They cannot.
Total global satellite communications capacity is projected at roughly 50 terabits per second by 2026. Total submarine cable capacity is approximately 8,750 terabits per second. That is a 175-to-1 gap. A single next-generation submarine cable like Meta’s 2Africa or Google’s Firmina carries 200 to 400 terabits per second, more bandwidth than all of Starlink’s 6,000-plus satellites combined.
Satellites are a complement and an emergency fallback. They are not a backbone substitute. The physics are straightforward: a fibre-optic cable can carry orders of magnitude more data than a radio link from orbit because the signal travels through glass, not through atmosphere. LEO satellites reduce latency relative to geostationary satellites but still cannot match fibre’s bandwidth-per-dollar.
The GeoCables analysis of the March 2026 UAE data centre attack confirmed this in practice: Starlink handled individual user communications adequately. It could not carry hyperscaler traffic volumes between regions. The distinction matters because the financial system, AI training, and military communications all operate at the hyperscaler scale.
For at least the next decade, satellite internet is a lifeboat, not a hull. The hull is the cable. If the cable fails, the lifeboat cannot carry the cargo.
THE ATTRIBUTION PROBLEM
There is an honest complication at the centre of this story that any serious analyst is obligated to address, and it is the question of intent.
On March 10, 2026, Finland’s Security and Intelligence Service, Supo, released its National Security Overview 2026 and became the first known Western intelligence body to challenge the automatic sabotage framing of the Baltic cable incidents. Director Juha Martelius stated: our understanding has been that there has been no deliberate Russian state activity in the background. It is a very broadly shared view in the other European intelligence community.
Supo’s report noted that cable damage in the Baltic has occurred periodically throughout the 2000s and that the statistical frequency of recent incidents is quite typical for the Baltic Sea when you account for the increase in undersea infrastructure. The agency attributed the damage largely to Russia’s poorly maintained shadow fleet, the same aging, opaquely owned tanker fleet that Russia uses to evade oil sanctions. These ships operate with deferred maintenance, undertrained crews, and dragging anchors. They cause damage through negligence, not through coordinated Kremlin orders.
This assessment contradicts the framing of German Defence Minister Boris Pistorius, who called the November 2024 Yi Peng 3 incident sabotage, and the general posture of Baltic NATO governments.
The honest response is this: Supo may well be right that most or all of the Baltic incidents are negligent rather than directed. But it does not matter for the structural argument. The vulnerability is real and exploitable whether each individual incident is an accident or an order. The fact that Russia’s shadow fleet can sever critical NATO infrastructure through mere negligence, with no legal consequence, is itself a strategic problem of the first order. If the shadow fleet can do it by accident, any competent adversary can do it on purpose.
The cables do not care whether the anchor was dragged deliberately or carelessly. They are severed either way. The Estlink 2 cable was out for 7 months either way. The repair cost 60 million euros either way. The Helsinki court dismissed the case either way.
The attribution question is important for intelligence analysis. It is irrelevant for infrastructure vulnerability assessment.
THE HONEST COUNTER-CASE
The strongest counterarguments deserve their full weight.
The first and most important counterargument is that cable redundancy works. Every major Baltic and Red Sea cable cut was absorbed by the network through rerouting. No country went permanently dark. The internet did what it was designed to do. The honest response: true for well-connected regions with multiple cable paths. False for low-redundancy nodes. When both Matsu cables were cut in 2023, 14,000 people lost internet for 2 months. When all 5 of Vietnam’s major cables were damaged in early 2023, the country lost 75% of international capacity and was not fully restored until November. When Tonga’s sole cable was severed in January 2022, the nation went offline for 5 weeks. Redundancy is a probabilistic defence that an adversary can deliberately overwhelm by targeting multiple cables at a chokepoint.
The second counterargument is that the EU 347 million euro package and NATO Baltic Sentry will deter future incidents. The honest response: the Fitburg incident occurred after Baltic Sentry launched. The Eagle S case collapsed on jurisdiction. The 347 million euros is spread over 2 years and covers repair modules, monitoring, and new cable projects. It is modest against a $13 billion build cycle. Deterrence by surveillance is, per the Atlantic Council, at best an educated guess.
The third counterargument is that Starlink and satellite constellations reduce the dependency. The honest response: the 175-to-1 capacity gap is decisive. Satellites are lifeboat, not hull, for at least the next decade.
The fourth counterargument is that cables have always been cut and the world has always recovered. From 1914 to 2008 to 2024, communications were disrupted and restored. The honest response: the stakes have changed. Financial settlement, AI compute, and military command and control now ride the same infrastructure simultaneously, and adversaries now possess deliberate, deniable, scalable cutting capability including purpose-built devices operating at 4,000 metres depth.
The fifth counterargument is that the Baltic incidents are accidents, not strategy. The honest response is the one I gave above: the vulnerability is real whether the anchor is dragged deliberately or carelessly. The Eagle S dismissal proved that the legal system cannot distinguish between the two, and cannot punish either.
The bear case is right about resilience in the short term. The bear case is wrong about vulnerability in the medium term. The gap between those two horizons is where the risk lives.
THE WATCHLIST
Here is what to monitor over the next 90 days, in order of strategic importance. These are the indicators that will tell you whether the thesis is working in real time.
Baltic cable incident frequency is the primary signal. The cluster of 7 incidents in 3 months from November 2024 through January 2026 is the data pattern. If incidents continue at this rate, the thesis is confirmed. If they stop for 2 or more consecutive quarters after Baltic Sentry and the EU package are implemented, the deterrence argument gains credibility and the thesis requires revision.
The Newnew Polar Bear captain’s trial in Hong Kong is the legal signal. The pre-trial review is set for May 2026. A conviction on intent would be the first in any cable-cutting case and would establish precedent. An acquittal or dismissal would confirm the legal impunity thesis.
Taiwan Strait cable incidents and PLA exercises near cable routes are the escalation signal. Any cable disruption coinciding with a major military exercise would corroborate the rehearsal-to-readiness interpretation.
EU Cable Security Toolbox implementation milestones are the policy signal. The 20 million euro call for adaptable repair modules opened February 5, 2026. CPEI project awards are scheduled for 2026 to 2027. Execution pace determines whether the EU package is real or performative.
Hyperscaler cable investment announcements are the market signal. Meta’s Waterworth, AWS’s Fastnet, and Google’s TalayLink are all under construction. Any delays, rerouting decisions to avoid conflict zones, or insurance-driven cost escalation would confirm the vulnerability is being priced by the private sector.
Cable repair fleet expansion is the capacity signal. Japan has subsidized new vessel construction. The US NEPTUNE Act proposes 2 additional USNS cable ships. Any new builds would marginally improve the 60-ship bottleneck.
If 3 or more of these indicators move in the direction the analysis predicts, the thesis is working. If 3 or more move against it, the bear case is winning and the position should be reconsidered.
THE SEVERED WEB
On August 5, 1914, hours after Britain declared war on Germany, the cable ship CS Alert cut 5 telegraph cables in the English Channel. It was among the first acts of the war. The operation forced German traffic onto interceptable channels and enabled the decryption of the Zimmermann Telegram that helped draw the United States into the conflict.
On December 31, 2025, Finnish special forces fast-roped onto the deck of the Fitburg in the Gulf of Finland. The ship’s anchor had been dragged across a cable connecting Helsinki to Tallinn. Sanctioned Russian steel was in the hold. Two crew members were arrested. The investigation is ongoing.
Between those two dates, 111 years apart, the technology changed but the strategic logic did not. Cutting cables degrades communications, forces rerouting, introduces latency, creates intelligence opportunities, and above all, exposes the physical fragility of systems that the world has learned to treat as invulnerable.
The internet was designed to survive nuclear war. Its routing protocols can reroute traffic in seconds when a cable goes down. Its logical architecture is genuinely distributed. None of that changes the fact that 99% of intercontinental data travels through 600 glass threads lying unguarded on the ocean floor, maintained by 60 ships, built by 4 companies, and governed by a legal framework that cannot distinguish an act of war from a shipping accident.
$10 to $22 trillion in financial transactions cross those threads every working day. Every AI query that crosses an ocean rides them. Every military communication between a NATO headquarters and a deployed unit in the Pacific transits them. Every stock trade between New York and London depends on them.
The Baltic Sea is the proving ground. Taiwan is the strategic target. The Red Sea is the stress test. The financial system, the AI revolution, military communications, and the global internet all converge on the same physical layer, and that physical layer is a garden hose on the ocean floor.
Russia has a shadow fleet that severs them through negligence or design, with no legal consequence. China has purpose-built technology that can cut them at 4,000 metres depth. The guardrail, NATO Baltic Sentry and a 347 million euro EU package, was installed after the pattern began and has not stopped it.
The Central Bank Gold Agreement expired in 2019 because nobody expected central banks to sell gold. Nobody guarded the cables because nobody expected anyone to cut them. The pattern is always the same. The guardrail is built after the vulnerability is exploited, not before.
There are roughly 600 cable systems on the ocean floor right now. They carry your banking, your internet, your AI, and your military’s ability to talk to itself. They are no thicker than a garden hose. They are repaired by 60 ships with a 40-day average turnaround. They are unburied in the deep sea. They are unguarded by any nation.
The world built a $100 trillion digital economy on glass threads lying on the ocean floor.
Nobody asked what happens when somebody picks up the scissors.
No comments:
Post a Comment