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Half-DRAM
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DRAM memory is a major contributor for the total power consumption in modern computing systems. Consequently, power reduction for DRAM memory is critical to improve system-level power efficiency. Fine-grained DRAM architecture [1, 2] has been proposed to reduce the activation/ precharge power. However, those prior work either incurs significant performance degradation or introduces large area overhead. In this paper, we propose a novel memory architecture Half-DRAM, in which the DRAM array is reorganized to enable only half of a row being activated. The half-row activation can effectively reduce activation power and meanwhile sustain the full bandwidth one bank can provide. In addition, the half-row activation in Half-DRAM relaxes the power constraint in DRAM, and opens up opportunities for further performance gain. Furthermore, two half-row accesses can be issued in parallel by integrating the sub-array level parallelism to improve the memory level parallelism. The experimental results show that Half-DRAM can achieve both significant performance improvement and power reduction, with negligible design overhead
Association for Computing Machinery (ACM)
Title: Half-DRAM
Description:
DRAM memory is a major contributor for the total power consumption in modern computing systems.
Consequently, power reduction for DRAM memory is critical to improve system-level power efficiency.
Fine-grained DRAM architecture [1, 2] has been proposed to reduce the activation/ precharge power.
However, those prior work either incurs significant performance degradation or introduces large area overhead.
In this paper, we propose a novel memory architecture Half-DRAM, in which the DRAM array is reorganized to enable only half of a row being activated.
The half-row activation can effectively reduce activation power and meanwhile sustain the full bandwidth one bank can provide.
In addition, the half-row activation in Half-DRAM relaxes the power constraint in DRAM, and opens up opportunities for further performance gain.
Furthermore, two half-row accesses can be issued in parallel by integrating the sub-array level parallelism to improve the memory level parallelism.
The experimental results show that Half-DRAM can achieve both significant performance improvement and power reduction, with negligible design overhead.
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