2019 · 33 citations · 3 references
EngineeringComputer EngineeringElectrical EngineeringFault ToleranceLow-power DesignMicroelectronicsEmbedded Memory BlocksEnergy-efficient Embedded SystemsLow-power Digital Circuit DesignMemory Subsystem DesignPower ManagementSolid-state Drive ArchitectureEdge NodesFine-grained Power GatingLow-power Memory ArchitectureNon-volatile MemoryNonvolatile MemoryNonvolatile Memory DevicesRead LatencyWrite Latency
Non-volatility is emerging as an essential on-chip memory characteristic across a wide range of application domains, from edge nodes for the Internet of Things (IoT) to large computing clusters. On-chip non-volatile memory (NVM) is critical for low-energy operation, real-time responses, privacy and security, operation in unpredictable environments, and fault-tolerance [1]. Existing on-chip NVMs (e.g., Flash, FRAM, EEPROM) suffer from high read/write energy/latency, density, and integration challenges [1]. For example, an ideal IoT edge system would employ fine-grained temporal power gating (i.e., shutdown) between active modes. However, existing on-chip Flash can have long latencies (> 23 ms latency for erase followed by write), while inter-sample arrival times can be short (e.g., 2ms in [2]).
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