Titlebook: Memory Controllers for Mixed-Time-Criticality Systems; Architectures, Metho Sven Goossens,Karthik Chandrasekar,Kees Goossens Book 2016 Spri

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沉思的魚

Introduction,quirements on a modern SDRAM controller in Sect.?., and capture them in the problem statement in Sect.?.. Here, we also briefly discuss how the contributions of this book address the raised issues. Finally, we link the contributions to the remaining chapters in Sect.?..

Platelet

Reconfigurable Real-Time Memory Controller Architecture,tory continues with a detailed description of our novel reconfigurable memory controller architecture in Sect.?.. In Sect.?., we derive a worst-case performance model for this memory controller architecture, based on a Latency-rate server abstraction. We then continue with a discussion on the implem

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arsenal

Cycle-Accurate SDRAM Power Modeling,r energy efficient use. The key prerequisite to their efficient power/energy management is to use accurate SDRAM power and energy consumption estimates. This chapter addresses this issue by proposing a high-level cycle-accurate SDRAM power model called DRAMPower, which employs JEDEC-specified curren

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Power/Performance Trade-Offs,, we evaluate the effect of BI and BC on bandwidth, energy, and power. This chapter first describes how these metrics are calculated in Sect.?.. Section?. applies these calculations to twelve memories from six SDRAM generations. The observed trends and trade-offs between 16 different pattern configu

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Infantry

Reconfiguration,shows how the configuration of our memory controller is adaptable to these changes, starting with an overview of the reconfiguration options offered by our architecture in Sect.?.. Section?. describes how predictable and composable performance guarantees are defined for clients that remain active du

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