The purpose of the branch predictor is to improve the flow in the instruction pipeline.
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The purpose of the branch predictor is to improve the flow in the instruction pipeline.
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Branch predictor prediction is not the same as branch target prediction.
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Two-Level Branch Predictor, referred to as Correlation-Based Branch Predictor, uses a two-dimensional table of counters, called "Pattern History Table".
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Advantage of the two-level adaptive Branch predictor is that it can quickly learn to predict an arbitrary repetitive pattern.
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Local branch predictor has a separate history buffer for each conditional jump instruction.
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An alloyed branch predictor combines the local and global prediction principles by concatenating local and global branch histories, possibly with some bits from the program counter as well.
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An agree Branch predictor is a two-level adaptive Branch predictor with globally shared history buffer and pattern history table, and an additional local saturating counter.
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Hybrid Branch predictor, called combined Branch predictor, implements more than one prediction mechanism.
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Alpha 21264 and Alpha EV8 microprocessors used a fast single-cycle next-line predictor to handle the branch target recurrence and provide a simple and fast branch prediction.
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The neural branch predictor research was developed much further by Daniel Jimenez.
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In 2001, the first perceptron Branch predictor was presented that was feasible to implement in hardware.
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Main advantage of the neural Branch predictor is its ability to exploit long histories while requiring only linear resource growth.
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