“Moore's Law, which predicts the doubling of transistors on integrated circuits approximately every two years, has effectively ended as of March 2026.”

Process node names no longer correspond to precise physical measurements, but scaling continues based on improvements in power, performance, area, and cost. There remains significant momentum and investment to overcome obstacles and advance to subsequent technology generations.

As we move beyond 2nm chips, market trends and growth data show that the future is more than just smaller transistors. It's about efficiency, performance, and new ways to keep Moore's Law alive. ... 2nm chip production is expected to begin in 2025, with commercial adoption ramping up by 2026-2027.

That sense of certainty and predictability has now gone, and not because innovation has stopped, but because the physical assumptions that once underpinned it no longer hold. So what replaces the old model of automatic speed increases? The answer is not a single breakthrough, but several overlapping strategies. One involves new materials and transistor designs. Engineers are refining how transistors are built to reduce wasted energy and unwanted electrical leakage.

Moore's law in its traditional interpretation may be slowing down. But the spirit of innovation that it represents continues to drive the semiconductor industry, and definitely everyone at imec. ... These hurdles have led some to believe that we are witnessing the end of Moore's law as the straightforward doubling of transistor density becomes less feasible.

New materials and physical phenomena, such as high-k metal-gate (HKMG) transistors and channel stress, combined with continued reduction of horizontal dimensions, and the introduction of FinFETs and GAAFETs sustained Moore’s Law into the current decade.

No longer defined solely by incremental gains in transistor density, the industry is increasingly characterized by system-level innovation, cross-border collaborations, and a strategic shift toward supply chain resilience.

Moore's Law is Transforming. For decades, Moore's Law described a simple formula: Shrink transistors, double their number and computing power rises. This pattern no longer holds as cleanly as it once did, but that doesn't mean innovation has stopped. Instead, Moore's Law is evolving.

While the law has proven correct for the past five decades, some researchers believe it could be hitting a plateau. As for Moore, he believed that there are certainly limitations in the horizon—nothing, however, that could trump the semiconductor industry. 'To me, it’s very difficult to replace semiconductor technology,' Moore said.

Moore's Law isn't dead, but it's definitely slowing. While chips are still getting better, the rate of improvement is no longer as fast as it used to be. This slowdown is due to the increasing complexity of manufacturing at nanometer scales. The cost of innovation is rising, and traditional silicon-based approaches are reaching physical limits.

It's challenging to predict an exact timeline, but many experts believe that traditional Moore's Law scaling will continue to slow over the next decade, with 2036 being the year traditional approaches collapse. Beyond that, any further advancements will likely rely on alternative approaches, such as those mentioned above, rather than pure transistor scaling.

Moore's Law is the observation that the number of transistors on a microchip doubles approximately every two years, historically driving exponential increases in computing power and significant technological advancements. As physical and economic limitations are reached, the pace predicted by Moore's Law is slowing, prompting the tech industry to explore new technologies and computing paradigms.

But after six decades, the silicon transistor’s performance is now constrained by physical limits. Transistors are now so tiny – just a few atoms wide – that it is impossible to shrink them further and have them operate predictably and precisely in the way that we have come to rely on.

As of early 2026, TSMC has entered mass production of 2nm (N2) process nodes, with transistor density improvements continuing to approximate Moore's Law pacing through advanced GAAFET designs, and Intel's 20A (equivalent to ~2nm) node also scaling transistor counts significantly.

The length of coding tasks frontier systems can complete is growing exponentially – doubling every 7 months. This trend was discovered by researchers at METR. They took the most capable agents from 2019 to 2026, and tested them on about 230 tasks: mostly coding tasks, with some on general reasoning. This exponential trend seems robust, and there's no evidence of plateauing.

Moore's Law, the principle that transistors on a chip double every two years, has driven every major leap in computing for 60 years... But it's approaching its physical limit. Transistors are now just 60 silicon atoms wide. Shrink them below 5 nanometers and electrons start tunneling through barriers they're supposed to be blocked by (a quantum physics problem that makes the chip unreliable).