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    • 1. 发明授权
    • Efficient method for mode change detection and synchronization
    • 用于模式变化检测和同步的高效方法
    • US06898697B1
    • 2005-05-24
    • US10113387
    • 2002-03-29
    • Hongwen GaoChetana N. KeltcherMichael T. Clark
    • Hongwen GaoChetana N. KeltcherMichael T. Clark
    • G06F9/30G06F9/318G06F9/38G06F9/52G06F12/02G06F13/00
    • G06F9/30189G06F9/30076G06F9/30101G06F9/342G06F9/3861
    • A processor is configured to operate in a modes which utilize segmentation and which do not utilize segmentation. The processor includes circuitry which is configured to detect and respond to mode and state changes. The circuitry is configured to determine whether a segmentation state of the processor changes in response to execution of a control transfer operation. If the segmentation state does not change as a result of the transfer instruction, execution of instructions may continue sequentially and a corresponding first check performed. However, if the segmentation state does change as a result of the transfer instruction, a flush of the pipeline is initiated prior to performing a corresponding second check. When a first mode of operation is detected a limit check may be performed, while a canonical check may performed when a second mode of operation is detected. A special register is defined which is configured to indicate changes in segmentation state subsequent to a control transfer operations. A read of the special register may then be performed in order to determine whether a state change is indicated.
    • 处理器被配置为以利用分段并且不利用分段的模式操作。 处理器包括被配置为检测并响应模式和状态改变的电路。 电路被配置为确定处理器的分段状态是否响应于控制传送操作的执行而改变。 如果作为传送指令的结果,分段状态不改变,则指令的执行可以顺序地继续进行并进行相应的第一检查。 然而,如果作为转移指令的结果,分段状态确实改变,则在执行相应的第二次检查之前启动流水线的刷新。 当检测到第一操作模式时,可以执行极限检查,而当检测到第二操作模式时可以执行规范检查。 定义特殊寄存器,其被配置为指示在控制传送操作之后的分段状态的改变。 然后可以执行特殊寄存器的读取,以便确定是否指示状态改变。
    • 2. 发明授权
    • Using microcode to correct ECC errors in a processor
    • 使用微码来纠正处理器中的ECC错误
    • US06934903B1
    • 2005-08-23
    • US10023310
    • 2001-12-17
    • Chetana N. KeltcherWilliam Alexander HughesMichael T. ClarkBruce R. Holloway
    • Chetana N. KeltcherWilliam Alexander HughesMichael T. ClarkBruce R. Holloway
    • G11C7/10H03M13/00G11C29/00
    • G11C7/1006H03M13/00
    • An apparatus may include an ECC check circuit configured to detect an ECC error in response to an access to first data in a memory and a microcode unit. The microcode unit is coupled to receive an indication that the ECC check circuit has detected the ECC error. In response to the indication, the microcode unit is configured to dispatch a microcode routine stored by the microcode unit. The microcode routine includes instructions which, when executed, correct the ECC error in the memory. In another embodiment, a processor includes the microcode unit and execution circuitry. A method is also contemplated. An access is performed to first data in a memory. An ECC error is detected in response to the access. A microcode routine stored by a microcode unit is dispatched in response to the detecting of the ECC error. The microcode routine includes instructions which, when executed, correct the ECC error in the memory.
    • 一种装置可以包括ECC检查电路,其被配置为响应于对存储器和微代码单元中的第一数据的访问来检测ECC​​错误。 微代码单元被耦合以接收ECC检查电路已经检测到ECC错误的指示。 响应于该指示,微码单元被配置为发送由微码单元存储的微码例程。 微代码程序包括在执行时纠正存储器中的ECC错误的指令。 在另一个实施例中,处理器包括微代码单元和执行电路。 也考虑了一种方法。 对存储器中的第一数据执行访问。 响应于访问检测到ECC错误。 响应于ECC错误的检测,调度由微代码单元存储的微代码例程。 微代码程序包括在执行时纠正存储器中的ECC错误的指令。
    • 4. 发明授权
    • Establishing an operating mode in a processor
    • 在处理器中建立操作模式
    • US06973562B1
    • 2005-12-06
    • US09483101
    • 2000-01-14
    • Kevin J. McGrathMichael T. Clark
    • Kevin J. McGrathMichael T. Clark
    • G06F9/34G06F9/318G06F9/30
    • G06F9/30189G06F9/30185G06F9/342
    • A processor supports a processing mode in which the address size is greater than 32 bits and the operand size may be 32 or 64 bits. The address size may be nominally indicated as 64 bits, although various embodiments of the processor may implement any address size which exceeds 32 bits, up to and including 64 bits, in the processing mode. The processing mode may be established by placing an enable indication in a control register into an enabled state and by setting a first operating mode indication and a second operating mode indication in a segment descriptor to predefined states. Other combinations of the first operating mode indication and the second operating mode indication may be used to provide compatibility modes for 32 bit and 16 bit processing compatible with the x86 processor architecture (with the enable indication remaining in the enabled state).
    • 处理器支持地址大小大于32位的处理模式,操作数大小可以是32位或64位。 地址大小可以名义上表示为64位,尽管在处理模式下,处理器的各种实施例可以实现超过32位,高达并包括64位的任何地址大小。 可以通过将控制寄存器中的使能指示置于使能状态并且通过将段描述符中的第一操作模式指示和第二操作模式指示设置为预定状态来建立处理模式。 可以使用第一操作模式指示和第二操作模式指示的其他组合来提供与x86处理器架构兼容的32位和16位处理的兼容性模式(使能指示保持在使能状态)。
    • 5. 发明授权
    • Automotive fluid control system with pressure balanced solenoid valve
    • 具有压力平衡电磁阀的汽车流体控制系统
    • US06178956B2
    • 2001-01-30
    • US09194346
    • 1998-11-19
    • Christian SteinmannMichael J. CoveyThomas D. HerringtonMichael T. ClarkJohn W. DillonSteven J. RoskowskiKeith D. Marsh
    • Christian SteinmannMichael J. CoveyThomas D. HerringtonMichael T. ClarkJohn W. DillonSteven J. RoskowskiKeith D. Marsh
    • F02M2507
    • F02M35/10222F02M26/21F02M26/48F02M26/53F02M26/67F02M26/72F02M26/74F02M35/10019F02M35/10321F02M35/10386F02M35/1045
    • An automotive fluid control system with pressure balanced solenoid valve [24] and fluid mixing housing [22] is disclosed. The solenoid valve [24] is preferably used in an EGR (exhaust gas circulation) fluid control system, although the valve may be used in other vehicle fluid control systems, such as an engine block cooling liquid control system. A poppet member [84] of an EGR valve is pressured balanced such that only a light spring [170] and armature [88] are needed to control the positioning of the poppet member [84]. Magnetic and inductance sensors [184, 282] are used to accurately determine the position of the poppet member. The fluid mixing housing [22] homogeneously mixes first and second fluids. A portion of a main first fluid flow is funneled off and mixed in the housing [22] with a second fluid prior to being returned to the main fluid flow. Ideally, the housing [22] has a circumferentially extending channel [95] for intercepting, funnelling and mixing the captured portion of the main first fluid flow with the second fluid flow. Also, a solenoid subassembly [82] is disclosed which can mate with a variety of different valve housings [22] and which is adapted to mount on various engine configurations.
    • 公开了一种具有压力平衡电磁阀[24]和流体混合壳体[22]的汽车流体控制系统。 电磁阀[24]优选用于EGR(排气循环)流体控制系统,尽管该阀可用于其他车辆流体控制​​系统,例如发动机缸体冷却液控制系统。 EGR阀的提升阀构件[84]被加压平衡,使得只需要一个弹簧[170]和电枢[88]来控制提升阀构件[84]的定位。 磁性和电感传感器[184,282]用于准确地确定提升阀构件的位置。 流体混合壳体[22]均匀混合第一和第二流体。 主要第一流体流的一部分在被返回到主流体流之前用第二流体漏出并在壳体[22]中混合。 理想地,壳体22具有周向延伸的通道,用于拦截,漏斗和混合主要第一流体流的捕获部分与第二流体流。 此外,公开了一种螺线管子组件[82],其可以与各种不同的阀壳体[22]配合,并且其适于安装在各种发动机构造上。