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Dynamic computing random access memory

机译:动态计算随机存取存储器

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The present von Neumann computing paradigm involves a signi ? cant amount of information transfer between a central processing unit and memory, with concomitant limitations in the actual execution speed. However, it has been recently argued that a different form of computation, dubbed memcomputing (Di Ventra and Pershin 2013 Nat. Phys. 9 200 - 2) and inspired by the operation of our brain, can resolve the intrinsic limitations of present day architectures by allowing for computing and storing of information on the same physical platform. Here we show a simple and practical realization of memcomputing that utilizes easy- to-build memcapacitive systems. We name this architecture dynamic computing random access memory (DCRAM). We show that DCRAM provides massively-parallel and polymorphic digital logic, namely it allows for different logic operations with the same architecture, by varying only the control signals. In addition, by taking into account realistic parameters, its energy expenditures can be as low as a few fJ per operation. DCRAM is fully compatible with CMOS technology, can be realized with current fabrication facilities, and therefore can really serve as an alternative to the present computing technology.
机译:目前的冯·诺依曼计算范式涉及一个重要意义。中央处理单元和内存之间的信息传输量不够大,同时实际执行速度也受到限制。然而,最近有人争论说,一种被称为内存计算的不同形式的计算(Di Ventra和Pershin 2013 Nat。Phys。9 200-2)受到我们大脑操作的启发,可以通过以下方式解决当今架构的固有局限性:允许在同一物理平台上计算和存储信息。在这里,我们展示了利用易于构建的记忆电容系统对记忆计算进行简单实用的实现。我们将此架构命名为动态计算随机存取存储器(DCRAM)。我们展示了DCRAM提供了大规模并行和多态的数字逻辑,即它仅通过改变控制信号就可以在相同的体系结构中进行不同的逻辑运算。此外,通过考虑实际参数,每次操作的能源消耗可以低至几fJ。 DCRAM与CMOS技术完全兼容,可以用当前的制造设备实现,因此可以真正替代当前的计算技术。

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