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31 Mar 2026, 15:47

AI power demand surges beyond supply as data center boom strains energy systems and global markets

The AI industry is consuming electricity at a rate that exceeds global production capabilities, leading to simultaneous transformations in energy policy, geopolitics, and the global economy. Sam Altman from OpenAI stated that his company requires a gigawatt of electricity daily. To provide some context, the total amount of new power generation added across the United States in the previous year was approximately 53 gigawatts. The numbers pertaining to the expansion of AI are astounding. It is expected that in 2026, Amazon, Microsoft, Alphabet, and Meta will invest around $630 billion in data centers and chips. When you add the next seven largest cloud and infrastructure providers, that figure increases to $811 billion. The four biggest tech firms run about 600 data centers worldwide, with another 544 either in the planning phase or under construction. Building delays and broken supply chains Building one of these facilities is no small task. A modern 100-megawatt AI data centre costs upward of $4 billion. Around 70% of that goes toward servers and processors. But the real headache is not money, it is getting the thing connected and running. In major cities like London, securing a grid connection can take up to ten years. Companies are moving to rural areas, particularly parts of Texas, where permits are easier to get, but skilled workers are scarce. In some places, tech companies have had to help build entire communities to house their staff. Supply chains are buckling under the pressure. Transformers now have lead times of up to 100 weeks in Europe. Nearly 60% of data centre projects were delayed by more than three months last year. About 88% ran into problems just pouring concrete foundations. Cooling systems and fire alarm installation delayed 78% of projects. The latest Nvidia chips, the Blackwell series and the forthcoming Rubin architecture, generate significantly more heat than previous models. This has led operators to swap out air cooling for liquid cooling systems that require plumbing and water treatment infrastructure. Standard electrical delivery systems are unable to handle the power demands of next-generation server racks, prompting companies to turn to solid-state transformers and placing them in direct competition with the automotive industry for components. Geopolitical risks and declining returns The instability in the Middle East is contributing to the risk factor. Most data centers rely on diesel generators for backup power. Due to regional conflict, fuel supplies are threatened, and oil executives attending the CERAWeek conference in Houston cautioned that supply risks have yet to be factored into market prices. According to Melissa Otto, who leads research at S&P Global Visible Alpha, equity markets could face a significant correction if oil prices remain high over an extended period. The S&P 500 is heading for its worst quarterly performance in about four years, with the tech sector down nearly 8%. The financial returns that tech giants expected from their infrastructure spending are also slipping. Alphabet’s return on invested capital is projected to fall from 51% last year to around 36% by 2030. Microsoft’s share is anticipated to decrease from 95% in 2020 to 36% by 2030. According to some experts, the solution is not to construct additional power infrastructure but rather to utilize the existing resources more effectively. In established Western economies, electricity grids operate at an average utilization rate of about 30%. They reach their limits for only around 100 hours each year. It could offer an extra 100 gigawatts of power without the necessity for any new power plants by managing that spare capacity more effectively. A project between GridCARE and Portland General Electric is already testing this idea, using AI to predict renewable output and shift data centre workloads to times and places where power is available. Analysis suggests that a 1-gigawatt data centre using off-peak grid capacity could cut electricity bills for average consumers by as much as 5%. The message is simple: whoever figures out the power problem first will likely lead the next decade of technological and economic competition. Your keys, your card. Spend without giving up custody and earn 8%+ yield on your balance with Ether.fi Cash.

31 Mar 2026, 15:43

Google’s Quantum Advances Bring Bitcoin Security Debate Into Focus

Google’s latest quantum research claims to sharply reduce the resources needed to crack Bitcoin-style cryptography, putting a 2029 migration deadline squarely in view. Google Sets 2029 Deadline as Quantum Risks to Crypto Security Grow Clearer A new white paper from Google Quantum AI argues that breaking elliptic curve cryptography, the backbone of Bitcoin, Ethereum, and

31 Mar 2026, 15:10

Google: Quantum Computing Could Crack Top 1,000 ETH Wallets in Days

Google’s quantum computing team has published a white paper detailing how a sufficiently advanced quantum computer could crack the private keys of Ethereum’s 1,000 wealthiest wallets in under 9 days, directly risking more than 20 million ETH. In addition, the paper introduced a timeline that researchers say no longer allows room for complacency. What Google’s Research Found To understand the risk, it helps to know how crypto wallets stay secure today. Every wallet has a private key, a secret password of sorts, and a public address that others can see. The security system currently used by Ethereum makes it essentially impossible to work backwards from the public address to the private key. Quantum computers, once powerful enough, would break that barrier entirely. According to the Google paper, Ethereum is vulnerable at five separate levels. The most direct threat is to individual wallets: the top 1,000 alone hold around 20.5 million ETH. But smart contracts, the self-executing programs that power most of Ethereum’s financial activity, are also at risk. Their administrator keys control roughly $200 billion in stablecoins and other real-world assets. Beyond that, validators who keep Ethereum’s network running hold 37 million ETH in staked funds, and the systems that support Ethereum’s layer-2 networks each carry exposure worth around 15 million ETH. The danger is not just theoretical, with Google estimating that a fast quantum computer could crack a single wallet’s private key in about nine minutes. Putting that in the context of Bitcoin would show just how grave the situation might be, especially if you recall that a new Bitcoin block is confirmed about every ten minutes. It means that a quantum attacker could potentially steal funds from a transaction that is waiting to be processed before it even clears. Crypto research group Project Eleven described this as a “mempool attack,” something the crypto community had previously assumed was far off. The Warning May Come Too Late Google’s paper puts the qubit requirements for this attack at either 1,200 logical qubits and 90 million computational operations or 1,450 logical qubits and 70 million operations, depending on the architecture. According to Project Eleven, this is a 10x improvement over previously published estimates. Interestingly, on the same day Google released its findings, researchers from Oratomi, Caltech, and UC Berkeley published separate work showing that Shor’s algorithm could run at cryptographically relevant scales with as few as 10,000 reconfigurable atomic cubits, with ECC-256 potentially falling in five days on a 22,000-qubit machine. Nonetheless, opinion is divided on how close the threat actually is. Some analysts have argued that the danger is at least a decade away and that it will first hit the broader internet infrastructure, giving markets time to respond. But others are already setting things in motion, with Google, for example, setting a 2029 deadline to upgrade its own systems, and Ethereum co-founder Vitalik Buterin recently published a quantum resistance roadmap for the network, laying out how its security systems could be replaced with ones that quantum computers cannot break. The post Google: Quantum Computing Could Crack Top 1,000 ETH Wallets in Days appeared first on CryptoPotato .

31 Mar 2026, 15:00

Eurozone Energy Shock: Critical Challenge Tests ECB’s Monetary Policy Resolve – ING Analysis

BitcoinWorld Eurozone Energy Shock: Critical Challenge Tests ECB’s Monetary Policy Resolve – ING Analysis FRANKFURT, Germany – December 2025: A renewed energy price surge presents a critical challenge to the European Central Bank’s monetary policy framework, according to comprehensive analysis from ING economists. This developing situation tests the institution’s ability to maintain price stability across the 20-nation Eurozone bloc. The ECB faces mounting pressure as energy-driven inflation complicates its dual mandate. Eurozone Energy Shock Resurfaces as Economic Threat Energy markets demonstrate renewed volatility in late 2025, creating significant headwinds for European economies. Natural gas prices increased by approximately 40% during the third quarter. Electricity costs followed a similar upward trajectory across major European markets. Consequently, wholesale energy inflation reached its highest level since early 2024. Several interconnected factors drive this energy shock. Geopolitical tensions in key supply regions persist despite earlier stabilization efforts. Additionally, structural underinvestment in energy infrastructure during previous years creates supply constraints. Furthermore, seasonal demand patterns combine with these structural issues to pressure prices. The Eurozone’s energy dependency remains a fundamental vulnerability. ECB Monetary Policy Faces Complex Dilemma The European Central Bank confronts a particularly difficult policy environment. Energy-driven inflation presents different characteristics than demand-driven price increases. Monetary policy tools traditionally target aggregate demand through interest rate adjustments. However, supply-side shocks require different policy responses. The ECB must carefully distinguish between temporary price spikes and persistent inflationary trends. Recent ECB communications emphasize data-dependent decision-making. President Christine Lagarde stated the institution remains “vigilant” regarding second-round effects. The central bank worries that energy costs might embed into broader price expectations. Wage negotiations across Europe increasingly reference energy inflation. This creates potential for a wage-price spiral that monetary policy must prevent. ING’s Analytical Framework and Projections ING economists developed detailed models analyzing potential scenarios. Their research indicates energy costs could add 0.8 to 1.2 percentage points to headline inflation through mid-2026. The analysis considers multiple transmission channels. Energy prices directly affect consumer utility bills and transportation costs. Indirectly, they increase production expenses across manufacturing sectors. The research team examined historical precedents including the 2022 energy crisis. Current conditions differ significantly from that earlier period. European gas storage levels remain relatively robust at approximately 85% capacity. Diversified supply sources provide some buffer against single-source disruptions. However, market psychology and forward pricing exhibit concerning patterns. Comparative Impact Across Eurozone Economies Energy shock effects vary considerably across Eurozone member states. Industrial economies face particular challenges due to higher energy intensity. Germany’s manufacturing sector reports significant cost pressures. France benefits from greater nuclear energy independence but faces interconnected market pricing. Southern European economies experience compounded difficulties from tourism sector impacts. Energy Price Impact Projections by Country (Q4 2025) Country Gas Price Increase Electricity Price Increase Estimated GDP Impact Germany 42% 38% -0.4% France 35% 28% -0.2% Italy 48% 45% -0.5% Spain 39% 41% -0.3% Netherlands 45% 36% -0.4% This differential impact complicates ECB policy formulation. A one-size-fits-all monetary approach struggles to address national variations. The institution must balance competing needs across heterogeneous economies. This tension represents a fundamental challenge for the common currency area. Policy Responses and Potential Pathways European policymakers consider multiple response strategies. National governments implement targeted consumer support measures. The European Commission accelerates green energy transition initiatives. However, monetary policy maintains primary responsibility for price stability. The ECB possesses several potential tools beyond conventional rate adjustments. Key policy considerations include: Targeted longer-term refinancing operations (TLTROs) for energy-intensive sectors Adjustments to collateral framework to maintain financial stability Enhanced communication strategies to anchor inflation expectations Coordination with fiscal authorities on targeted support measures Market participants closely monitor ECB Governing Council deliberations. Forward guidance remains crucial for managing expectations. The institution must communicate its reaction function clearly. Ambiguity could increase market volatility and undermine policy effectiveness. Structural Implications for European Energy Policy Beyond immediate monetary policy challenges, this situation highlights structural issues. European energy markets require fundamental redesign according to many analysts. The current pricing mechanism links electricity costs to marginal gas prices. This creates disproportionate impacts from gas market volatility. Reform proposals suggest alternative pricing models based on average production costs. Investment in energy infrastructure demonstrates clear urgency. Renewable energy projects face permitting and grid connection delays. Interconnection capacity between European markets remains insufficient. Storage facilities require expansion to buffer supply disruptions. These structural solutions complement short-term monetary policy responses. Conclusion The Eurozone energy shock presents a critical test for ECB monetary policy in 2025. ING analysis highlights the complex trade-offs facing policymakers. Distinguishing between temporary price spikes and persistent inflation remains paramount. The institution must balance immediate price stability concerns with longer-term economic growth objectives. Successful navigation of this challenge will strengthen the Eurozone’s institutional framework. Conversely, policy missteps could undermine confidence in the common currency project. The coming months will demonstrate the ECB’s capacity to manage supply-side shocks within its existing mandate. FAQs Q1: What specifically constitutes an “energy shock” in economic terms? An energy shock refers to a sudden, significant increase in energy prices that disrupts economic equilibrium. It typically involves price increases of 30% or more within a single quarter, creating inflationary pressure and potentially reducing economic output. Q2: How does energy inflation differ from other types of inflation for central banks? Energy inflation originates from supply-side constraints rather than excessive demand. Central banks cannot directly increase energy supplies through monetary policy, making these shocks particularly challenging to address with conventional interest rate tools. Q3: What are “second-round effects” that the ECB monitors? Second-round effects occur when initial energy price increases trigger broader inflationary processes. These include wage demands indexed to energy costs, businesses passing on higher expenses to consumers, and inflation expectations becoming unanchored from central bank targets. Q4: How does the Eurozone’s energy dependency compare to other major economies? The Eurozone imports approximately 58% of its energy needs, significantly higher than the United States (which became a net exporter) but lower than Japan’s 88% dependency rate. This import dependency creates particular vulnerability to global price fluctuations. Q5: What historical precedents exist for ECB policy during energy shocks? The ECB navigated the 2022 energy crisis by implementing a gradual tightening cycle while developing targeted lending facilities. The 2011 oil price spike prompted a brief rate increase that was subsequently reversed as the sovereign debt crisis intensified, illustrating the difficult trade-offs involved. This post Eurozone Energy Shock: Critical Challenge Tests ECB’s Monetary Policy Resolve – ING Analysis first appeared on BitcoinWorld .

31 Mar 2026, 14:55

Quantum Day: XRP Ledger Quantum Resilience Tested With Full Proof Features

XRP Ledger in spotlight as new research warns that quantum advances could break crypto security sooner than expected.

31 Mar 2026, 14:45

Elon Musk Names Surprising Advantage of Quantum Crypto Hacks

Tech billionaire Elon Musk sees a surprising silver lining in Google's research paper: the ability to finally recover long-lost Bitcoin passwords.