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@songnguw15: Túi khủng long đựng được nhiều đồ , có lót đáy khá cứng nên không bị xệ nha #tuitote #totebag #sdalykosk #tuixach #tuidichoi

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Monday 28 September 2026 09:03:46 GMT
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🤯 Is this the end of Moore’s Law? Moore's Law, the principle that transistors on a chip double every two years, has driven every major leap in computing for 60 years, from early PCs to the smartphone revolution to the AI boom. 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). That's the limit silicon imposes. Getting to that final generation requires X-ray lithography, a technique that demands atomic-level precision from the surface the light shines onto. Current materials aren't precise enough. The pattern bleeds, and the transistor doesn't form correctly. But a team at Johns Hopkins thinks they've found the answer: metal-organic frameworks, crystalline structures that naturally arrange themselves with atomic-level precision, making them the first material potentially capable of etching patterns at that final scale. Commercial adoption isn't expected until 2040. And with AI already driving a global chip shortage, pushing memory prices up 50% in a single quarter, the pressure to get there has never been higher. Beyond silicon, chipmakers will likely have to abandon it entirely, moving toward graphene or materials not yet settled on. What that next era looks like remains completely open.
🤯 Is this the end of Moore’s Law? Moore's Law, the principle that transistors on a chip double every two years, has driven every major leap in computing for 60 years, from early PCs to the smartphone revolution to the AI boom. 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). That's the limit silicon imposes. Getting to that final generation requires X-ray lithography, a technique that demands atomic-level precision from the surface the light shines onto. Current materials aren't precise enough. The pattern bleeds, and the transistor doesn't form correctly. But a team at Johns Hopkins thinks they've found the answer: metal-organic frameworks, crystalline structures that naturally arrange themselves with atomic-level precision, making them the first material potentially capable of etching patterns at that final scale. Commercial adoption isn't expected until 2040. And with AI already driving a global chip shortage, pushing memory prices up 50% in a single quarter, the pressure to get there has never been higher. Beyond silicon, chipmakers will likely have to abandon it entirely, moving toward graphene or materials not yet settled on. What that next era looks like remains completely open.

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