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    • 1. 发明授权
    • Static queue and index queue for storing values identifying static queue locations
    • 静态队列和索引队列,用于存储识别静态队列位置的值
    • US06317806B1
    • 2001-11-13
    • US09315612
    • 1999-05-20
    • Srinath AudityanThomas Albert PetersenRobert Charles Podnar
    • Srinath AudityanThomas Albert PetersenRobert Charles Podnar
    • G06F1200
    • G06F5/06G06F12/0855Y02D10/13
    • A queuing apparatus associated with a processor includes at least one static queue (11), an index generator (34), at least one index queue (37), and a static queue accessing arrangement. Each static queue (11) has a number of static queue locations (12), each for storing a static queue entry and an availability indicator (14) for indicating an availability status of the respective static queue location. The index generator (34) uses information from the static queue (11) to provide a unique index value for each static queue entry, the index value for a particular static queue entry identifying the static queue location (12) containing the particular static queue entry. Each index queue (37, 42) has a number of index queue locations (40), each for storing one of the index values provided by the index generator (34). The static queue accessing arrangement retrieves a selected index value from a particular index queue location (40), and uses the selected index value to retrieve the static queue entry with which the selected index value is associated. Multiple index queues (37, 42) facilitate prioritization of static queue entries, and reprioritization by transferring index queue values from one index queue to another. The index queues (37, 42) also facilitate compaction of unnecessary static queue entries.
    • 与处理器相关联的排队设备包括至少一个静态队列(11),索引生成器(34),至少一个索引队列(37)和静态队列访问布置。 每个静态队列(11)具有多个静态队列位置(12),每个静态队列位置(12)用于存储静态队列条目和用于指示相应静态队列位置的可用性状态的可用性指示符(14)。 索引生成器(34)使用来自静态队列(11)的信息为每个静态队列条目提供唯一的索引值,特定静态队列条目的索引值标识包含特定静态队列条目的静态队列位置(12) 。 每个索引队列(37,42)具有多个索引队列位置(40),每个索引队列位置(40)用于存储由索引生成器(34)提供的索引值之一。 静态队列访问安排从特定索引队列位置(40)检索所选择的索引值,并使用所选择的索引值来检索与所选择的索引值相关联的静态队列条目。 多个索引队列(37,42)有助于静态队列条目的优先化,并通过将索引队列值从一个索引队列传递到另一个索引队列来重新确定优先级。 索引队列(37,42)还有助于压缩不必要的静态队列条目。
    • 4. 发明授权
    • Automatic READ latency calculation without software intervention for a source-synchronous interface
    • 自动读取延迟计算,无需软件干预源同步接口
    • US06898682B2
    • 2005-05-24
    • US10217174
    • 2002-08-12
    • James A. WelkerSrinath AudityanJose M. NunezRobert C. Podnar
    • James A. WelkerSrinath AudityanJose M. NunezRobert C. Podnar
    • G06F12/00G06F12/14G06F13/42
    • G06F13/4217
    • In response to a clock cycle and a pending READ command for data with a variably recurring access latency, a clock cycle count is adjusted. If a latency value has not been locked and if the READ command is a first READ command, the clock cycle count is stored as a locked latency value upon receiving a synchronized data available event (DQS for instance). Each subsequent READ command has an associated clock cycle count to enable pipelining wherein the clock cycle count for each READ starts incrementing when the individual READ command is issued. For subsequent READ commands, if the cycle count compares favorably with the locked latency value, data can be sampled safely from the interface at the identical latency for every READ request issued. The locked latency value can be read and/or written by software/hardware such that the read latency is consistent across multiple devices for reproducibility during debug.
    • 响应于具有可变重复访问延迟的数据的时钟周期和待处理的READ命令,调整时钟周期计数。 如果延迟值未被锁定,并且READ命令是第一个READ命令,则在接收到同步数据可用事件(例如DQS)时,时钟周期计数被存储为锁定延迟值。 每个随后的READ命令具有关联的时钟周期计数以启用流水线,其中当发出各个READ命令时,每个READ的时钟周期计数开始递增。 对于随后的READ命令,如果循环计数与锁定的延迟值相比有利,则可以按照发出的每个READ请求以相同的等待时间从接口对数据进行安全采样。 锁定的延迟值可以由软件/硬件读取和/或写入,使得读取延迟在多个设备之间保持一致,以便在调试期间重现。
    • 5. 发明授权
    • Data transfer unit with support for multiple coherency granules
    • 支持多个一致性粒子的数据传输单元
    • US06847990B2
    • 2005-01-25
    • US10150671
    • 2002-05-17
    • Srinath AudityanMarie J. SullivanJose M. Nunez
    • Srinath AudityanMarie J. SullivanJose M. Nunez
    • G06F12/08G06F12/00G06F13/28G06F13/42
    • G06F13/4208G06F12/0835G06F13/28
    • A data transfer unit is able to read data from a source at the source coherency granule size and write data at the destination coherency granule size even though the two granule sizes may be different. A data transfer unit has registers for storing the granule size information in preparation of performing a transfer of a data block between a source and a destination. The data block is transferred in sub-blocks. Except for the first and last sub-blocks, the sub-blocks, for a read, are sized to the source coherency granule size, which is the transfer size that has been optimized for the source. For the write, the sub-blocks are sized to the destination coherency granule size, which is the transfer size that has been optimized for the destination. Thus, both the read and the write are optimized even though the transfers themselves are among devices with different coherency granules.
    • 数据传输单元能够以源一致性粒度大小从源读取数据,并且以目的一致性粒度大小写入数据,即使两个粒度大小可能不同。 数据传送单元具有用于在准备执行源和目的地之间的数据块的传送的情况下存储颗粒大小信息的寄存器。 数据块在子块中传输。 除了第一个和最后一个子块之外,用于读取的子块的大小与源相关性粒度大小相同,这是源已经优化的传输大小。 对于写入,子块的大小与目标一致性粒度大小相同,这是目标优化的传输大小。 因此,即使传输本身在具有不同一致性颗粒的设备中,读取和写入都被优化。