Multiprocessor Systems-on-ChipsElsevier, 2004. gada 15. okt. - 608 lappuses Modern system-on-chip (SoC) design shows a clear trend toward integration of multiple processor cores on a single chip. Designing a multiprocessor system-on-chip (MPSOC) requires an understanding of the various design styles and techniques used in the multiprocessor. Understanding the application area of the MPSOC is also critical to making proper tradeoffs and design decisions. Multiprocessor Systems-on-Chips covers both design techniques and applications for MPSOCs. Design topics include multiprocessor architectures, processors, operating systems, compilers, methodologies, and synthesis algorithms, and application areas covered include telecommunications and multimedia. The majority of the chapters were collected from presentations made at the International Workshop on Application-Specific Multi-Processor SoC held over the past two years. The workshop assembled internationally recognized speakers on the range of topics relevant to MPSOCs. After having refined their material at the workshop, the speakers are now writing chapters and the editors are fashioning them into a unified book by making connections between chapters and developing common terminology. *Examines several different architectures and the constraints imposed on them *Discusses scheduling, real-time operating systems, and compilers *Analyzes design trade-off and decisions in telecommunications and multimedia applications |
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1.5. rezultāts no 18.
16. lappuse
... offer instruction-level parallelism (ILP) dynamically (superscalar) and statically (VLIW) and thread-level 17 parallelism statically (clustered VLIW) and dynamically (simultaneous multithreading [SMT]). 1 The What, Why, and How of MPSoCs.
... offer instruction-level parallelism (ILP) dynamically (superscalar) and statically (VLIW) and thread-level 17 parallelism statically (clustered VLIW) and dynamically (simultaneous multithreading [SMT]). 1 The What, Why, and How of MPSoCs.
88. lappuse
... IF 3 EX ID. 4-9 FIGURE Stall cycles due to a control hazard. The IF stage stalls until the branch executes 4-16 Superscalar processing exceeds the scalar bottleneck explicitly. 4 Architecture of Embedded Microprocessors.
... IF 3 EX ID. 4-9 FIGURE Stall cycles due to a control hazard. The IF stage stalls until the branch executes 4-16 Superscalar processing exceeds the scalar bottleneck explicitly. 4 Architecture of Embedded Microprocessors.
93. lappuse
... superscalar processing. A dual-issue superscalar processor doubles the peak execution rate with respect to the original scalar pipeline, as shown in Figure 4-16. The most aggressive pipelines employ deep speculation, out-of-order ...
... superscalar processing. A dual-issue superscalar processor doubles the peak execution rate with respect to the original scalar pipeline, as shown in Figure 4-16. The most aggressive pipelines employ deep speculation, out-of-order ...
94. lappuse
... superscalar 2 ID ID IF IF 3 EX EX ID ID IF IF 4 MEM MEM EX EX ID ID 5 WB WB MEM MEM EX EX 6 WB WB MEM MEM 7 WB WB 95 becomes underutilized. For example, it is generally recognized that. 4-16 Superscalar processing exceeds the scalar ...
... superscalar 2 ID ID IF IF 3 EX EX ID ID IF IF 4 MEM MEM EX EX ID ID 5 WB WB MEM MEM EX EX 6 WB WB MEM MEM 7 WB WB 95 becomes underutilized. For example, it is generally recognized that. 4-16 Superscalar processing exceeds the scalar ...
95. lappuse
... superscalar processor is significantly underutilized due to imperfect branch prediction and L2 cache misses. In terms of ballpark estimates, average utilization is around 20 to 30% for SPEC integer and floating-point benchmarks ...
... superscalar processor is significantly underutilized due to imperfect branch prediction and L2 cache misses. In terms of ballpark estimates, average utilization is around 20 to 30% for SPEC integer and floating-point benchmarks ...
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abstraction algorithms analysis application application-specific approach behavior block branch prediction buffer busses cache channel chip circuit communication architecture communication protocols compiler complex components Computer-Aided Design concurrent configuration constraints cores cycles dataflow deadline decoder Design Automation Design Automation Conference dynamic EEMBC efficient elements embedded systems encoding energy consumption event example execution FIFO FPGA function general-purpose global hardware heterogeneous IEEE implementation input instruction integrated interconnect interface latency layer logic mapping memory meta-model MoCs modules MPSoC multimedia multiple multiprocessor netlist number of processors on-chip communication optimization packet parallelism parameters performance pipeline platform port priority Proc resource RISC RTOS run-time scheduling shared shown in Figure signal simulation SoC design specification static subsystem superscalar switching Symposium synchronization synthesis system design SystemC target task techniques tion Ubicom VLIW VLSI voltage WCET wrapper Xtensa