<figure class="wp-block-image size-large"><img width="325px" height="183px" srcSet="https://d2ly46a6b1u3g6.cloudfront.net/wp-content/uploads/2026/02/09114300/News-Human-Level-AI-Might-Arrive-in-Just-Two-Years_1-375x212.webp 375w, https://d2ly46a6b1u3g6.cloudfront.net/wp-content/uploads/2026/02/09114300/News-Human-Level-AI-Might-Arrive-in-Just-Two-Years_1-662x374.webp 662w, https://d2ly46a6b1u3g6.cloudfront.net/wp-content/uploads/2026/02/09114300/News-Human-Level-AI-Might-Arrive-in-Just-Two-Years_1.webp 686w" sizes="(max-width: 425px) 150px, 450px" src="https://ll-blog-dev.s3.ap-southeast-2.amazonaws.com/wp-content/uploads/2026/02/09114300/News-Human-Level-AI-Might-Arrive-in-Just-Two-Years_1-662x374.webp" alt="" class="wp-image-9220"/></figure>


Researchers at Loughborough University built something wild. An <a href="https://advanced.onlinelibrary.wiley.com/doi/full/10.1002/aisy.202500833" target="_blank" rel="noopener">AI chip</a> that uses 2,000 times less energy than conventional systems. That&#x27;s according to an official announcement from the university.
The breakthrough&#x27;s detailed in a scientific journal. It uses memristor technology. Computation happens directly in hardware. No shuttling data between memory and processors. That&#x27;s where today&#x27;s AI systems waste massive power.
The chip&#x27;s built around memristors. They&#x27;re electronic components that mimic brain synapses. They &quot;remember&quot; previous signals. They adjust their response based on past activity.
The research team used nanometer-thin niobium oxide films. They&#x27;ve got randomly distributed pores. These create complex physical connections. They function like neural networks.
Tests focused on predicting complex time series evolution. The device achieved energy savings up to 2,000 times versus standard software. That&#x27;s compared to conventional hardware, according to the university.
The technology targets specific tasks. Time-sensitive data where small variations matter. Weather prediction. Biological signal monitoring. Stock market fluctuations. Wave patterns.
Processing happens where data&#x27;s stored. That eliminates the constant back-and-forth between memory and CPU. Traditional architectures drain power doing exactly that.
The researchers emphasize something new. Exploiting physical processes in materials themselves. It&#x27;s a different route to efficient AI computation. Not relying purely on algorithmic optimization.
&quot;This approach allows a fundamental &#x27;rethinking&#x27; of how AI systems are built, potentially enabling low-power, embedded intelligence without cloud dependence,&quot; said Dr. Pavel Borisov, lead author of the study.
The energy cost of AI&#x27;s become a growing concern. Large models like ChatGPT consume significant power. Neuromorphic computing seeks to replicate biological brain efficiency in AI hardware. This chip represents that approach. The goal: reduce environmental impact and operational costs.
Commercialized chips could power on-device monitoring. Cars. Robots. Nuclear plants. Wearables.
Real-time applications could include spotting strokes through heart rhythm analysis. Detecting engine failures. Identifying reactor anomalies. All without relying on cloud infrastructure.
The work points toward a future where AI scales differently. Without current energy burdens. Intelligence comes directly to edge devices. They operate independently. Efficiently.

Ethereum Foundation Loses Eight Senior Figures in 2026 Exodus

US Sanctions Sinaloa Cartel for Crypto Money Laundering

Bankr Halts Transactions After Hackers Steal $440,000

Tether Acquires SoftBank's Stake in Twenty One Capital

Brain-Inspired AI Chip Cuts Energy Use by 2000 Times

Loughborough University researchers developed a brain-inspired AI chip using memristor technology that slashes energy consumption by 2,000 times vs conventional systems.