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    • 14. 发明申请
    • Double Data Rate Chaining for Synchronous DDR Interfaces
    • 双数据速率链接同步DDR接口
    • US20070300095A1
    • 2007-12-27
    • US11426651
    • 2006-06-27
    • Michael FeePatrick J. MeaneyChristopher J. BerryJonathan Y. ChenAlan P. Wagstaff
    • Michael FeePatrick J. MeaneyChristopher J. BerryJonathan Y. ChenAlan P. Wagstaff
    • G06F1/12
    • G06F13/4217
    • A system and method in which the receiving chip separately latches each half of the data received from the double data rate bus. Each half is launched as soon as it is available; one on the normal chip cycle time and the other is launched from a Master (L1) latch a half cycle into the normal chip cycle time. The first launched half of the data proceeds through the chip along its standard design chip path to be captured by the chips driving interface latch and launched again after one cycle of latency on the chip. The second half of the data proceeds through the chip one half cycle behind the first half, and is latched a half clock cycle later part way through the path into a Slave (L2) latch. On the next edge of the local clock, the data then continues from the L2 latch to the driving double data rate interface. This allows a half cycle set up time for the second half of the data so that it can be launched again, maintaining a one-cycle time on the chip.
    • 一种系统和方法,其中接收芯片分别锁存从双数据速率总线接收​​的数据的每一半。 每一半都可以立即启动; 一个在正常的芯片周期时间,另一个从主(L1)锁存器半个周期启动到正常的芯片周期时间。 首先推出的一半数据通过芯片沿其标准设计芯片路径进行,由芯片驱动接口锁存器捕获,并在芯片上的一个延迟周期后再次启动。 数据的后半部分通过芯片在上半部分后半个周期进行,并且稍后通过进入从(L2)锁存器的路径被锁存半个时钟周期。 在本地时钟的下一个边缘,数据然后从L2锁存器继续到驱动双数据速率接口。 这允许半周期的半周期设置时间,以便可以再次启动,在芯片上保持一个周期的时间。
    • 18. 发明授权
    • Double data rate chaining for synchronous DDR interfaces
    • 双数据速率链接同步DDR接口
    • US07739538B2
    • 2010-06-15
    • US11426651
    • 2006-06-27
    • Michael FeePatrick J. MeaneyChristopher J. BerryJonathan Y. ChenAlan P. Wagstaff
    • Michael FeePatrick J. MeaneyChristopher J. BerryJonathan Y. ChenAlan P. Wagstaff
    • G06F5/06G11C8/16
    • G06F13/4217
    • A system and method in which the receiving chip separately latches each half of the data received from the double data rate bus. Each half is launched as soon as it is available; one on the normal chip cycle time and the other is launched from a Master (L1) latch a half cycle into the normal chip cycle time. The first launched half of the data proceeds through the chip along its standard design chip path to be captured by the chips driving interface latch and launched again after one cycle of latency on the chip. The second half of the data proceeds through the chip one half cycle behind the first half, and is latched a half clock cycle later part way through the path into a Slave (L2) latch. On the next edge of the local clock, the data then continues from the L2 latch to the driving double data rate interface. This allows a half cycle set up time for the second half of the data so that it can be launched again, maintaining a one-cycle time on the chip.
    • 一种系统和方法,其中接收芯片分别锁存从双数据速率总线接收​​的数据的每一半。 每一半都可以立即启动; 一个在正常的芯片周期时间,另一个从主(L1)锁存器半个周期启动到正常的芯片周期时间。 首先推出的一半数据通过芯片沿其标准设计芯片路径进行,由芯片驱动接口锁存器捕获,并在芯片上的一个延迟周期后再次启动。 数据的后半部分通过芯片在上半部分后半个周期进行,并且稍后通过进入从(L2)锁存器的路径被锁存半个时钟周期。 在本地时钟的下一个边缘,数据然后从L2锁存器继续到驱动双数据速率接口。 这允许半周期的半周期设置时间,以便可以再次启动,在芯片上保持一个周期的时间。
    • 20. 发明授权
    • Method for resource sharing in a multiple pipeline environment
    • 多管道环境中资源共享的方法
    • US07809874B2
    • 2010-10-05
    • US11425398
    • 2006-06-21
    • Patrick J. MeaneyMichael FeeChristopher M. Carney
    • Patrick J. MeaneyMichael FeeChristopher M. Carney
    • G06F13/14
    • G06F13/37
    • Disclosed is a method and apparatus for arbitration between multiple pipelines over shared resources for an SMP computer system. The computer includes logic to defer arbitration until later in the pipeline to help reduce latency to each pipeline. Also, introduced is the concept of retry tags for better priority to avoid lock-out. The system also includes round-robin tokens to manage rejected requests to allow better fairness on conflicts. While the processing logic employed specifically applies to cross-interrogation, the logic can be extended to other common resources. The illustrated SMP computer system also has self-correcting logic to maintain good round-robin tokens.
    • 公开了一种用于通过SMP计算机系统的共享资源在多个管线之间仲裁的方法和装置。 该计算机包括延迟仲裁的逻辑,直到稍后的管道,以帮助减少每个管道的延迟。 此外,引入了重试标签的概念,以便更好地优先避免锁定。 该系统还包括循环令牌来管理被拒绝的请求,以使冲突更加公平。 虽然采用的处理逻辑特别适用于交叉询问,但逻辑可以扩展到其他公共资源。 所示的SMP计算机系统还具有自校正逻辑,以保持良好的循环令牌。