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Von Neumann Bypass라 명명된 기술 설명. 'FLEXI'는 Compute-in-Memory(CIM)를 활용해 저장 셀 자체가 배열 내부에서 연산을 수행하도록 설계되어, 기존 칩에서 데이터 이동으로 낭비되는 에너지를 줄인다는 주장임. 요약하면 데이터 이동(데이터 통근)을 줄여 전력 소비와 지연을 개선하려는 하드웨어 접근법이다.

https://x.com/ScienceSanctum/status/2018192250719920147

#computeinmemory #cim #aihardware #memorycompute

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@rohanpaul_ai This is the Von Neumann Bypass. Standard chips waste massive energy just moving data. FLEXI uses Compute-in-Memory (CIM). The storage cells don't just hold data; they physically perform the math inside the array. You aren't just saving power; you are deleting the Data Commute!

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3D Ferroelectric Memory: A DRAM Alternative Without Power Loss

3D ferroelectric memory stores data with zero power. Discover how this breakthrough tech could revolutionize AI, edge devices, and low-power storage solutions.

Blue Headline
@parismarx Apropos of this, what you optimize for is what you measure. Google is more efficient because they optimize for both raw performance and energy use. A thing that I wrote: https://semiengineering.com/increasing-ai-energy-efficiency-with-compute-in-memory/
#ComputeInMemory #ComputingEfficiency
Increasing AI Energy Efficiency With Compute In Memory

How to process zettascale workloads and stay within a fixed power budget.

Semiconductor Engineering