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    • 2. 发明申请
    • Pipelined parallel programming operation in a non-volatile memory system
    • 在非易失性存储器系统中进行流水线并行编程操作
    • US20050146939A1
    • 2005-07-07
    • US11058359
    • 2005-02-14
    • Kevin ConleyYoram Cedar
    • Kevin ConleyYoram Cedar
    • G06F5/06G06F12/00G11C7/10G11C11/34G11C16/06G11C16/10
    • G11C16/105G11C16/10G11C16/102G11C2216/22
    • The present invention allows for an increase in programming parallelism in a non-volatile memory system without incurring additional data transfer latency. Data is transferred from a controller to a first memory chip and a programming operation is caused to begin. While that first memory chip is busy performing that program operation, data is transferred from the controller to a second memory chip and a programming operation is caused to begin in that chip. Data transfer can begin to the first memory chip again once it has completed its programming operation even though the second chip is still busy performing its program operation. In this manner high parallelism of programming operation is achieved without incurring the latency cost of performing the additional data transfers. Two sets of embodiments are presented, one that preserves the host data in a buffer until successful programming of that data is confirmed and one that does not require that success be achieved and that does not preserve the data thus achieving a higher rate of data programming throughput.
    • 本发明允许在非易失性存储器系统中增加编程并行性,而不会引起额外的数据传输等待时间。 数据从控制器传送到第一存储器芯片,并且开始编程操作。 当该第一存储器芯片正在忙于执行该程序操作时,数据从控制器传送到第二存储器芯片,并且使该编程操作在该芯片中开始。 一旦完成编程操作,即使第二个芯片仍在忙于执行其程序操作,数据传输也可以再次开始到第一个存储器芯片。 以这种方式,实现编程操作的高并行性,而不会导致执行附加数据传输的延迟成本。 呈现了两组实施例,一种将缓冲器中的主机数据保留,直到该数据的成功编程被确认为止,并且不需要实现该成功,并且不保留数据从而实现更高的数据编程吞吐量 。
    • 7. 发明申请
    • Pipelined Parallel Programming Operation in a Non-Volatile Memory System
    • 非易失性存储器系统中的流水线并行编程操作
    • US20070091680A1
    • 2007-04-26
    • US11611706
    • 2006-12-15
    • Kevin ConleyYoram Cedar
    • Kevin ConleyYoram Cedar
    • G11C16/04
    • G11C16/105G11C16/10G11C16/102G11C2216/22
    • The present invention allows for an increase in programming parallelism in a non-volatile memory system without incurring additional data transfer latency. Data is transferred from a controller to a first memory chip and a programming operation is caused to begin. While that first memory chip is busy performing that program operation, data is transferred from the controller to a second memory chip and a programming operation is caused to begin in that chip. Data transfer can begin to the first memory chip again once it has completed its programming operation even though the second chip is still busy performing its program operation. In this manner high parallelism of programming operation is achieved without incurring the latency cost of performing the additional data transfers. Two sets of embodiments are presented, one that preserves the host data in a buffer until successful programming of that data is confirmed and one that does not require that success be achieved and that does not preserve the data thus achieving a higher rate of data programming throughput.
    • 本发明允许在非易失性存储器系统中增加编程并行性,而不会引起额外的数据传输等待时间。 数据从控制器传送到第一存储器芯片,并且开始编程操作。 当该第一存储器芯片正在忙于执行该程序操作时,数据从控制器传送到第二存储器芯片,并且使该编程操作在该芯片中开始。 一旦完成编程操作,即使第二个芯片仍在忙于执行其程序操作,数据传输也可以再次开始到第一个存储器芯片。 以这种方式,实现编程操作的高并行性,而不会导致执行附加数据传输的延迟成本。 提出了两组实施例,一种将数据保存在缓冲器中,直到该数据的成功编程得到确认,并且不需要实现成功,并且不保留数据从而实现更高的数据编程吞吐量 。
    • 9. 发明申请
    • Flash Memory Data Correction and Scrub Techniques
    • 闪存数据校正和擦写技术
    • US20070211532A1
    • 2007-09-13
    • US11748077
    • 2007-05-14
    • Carlos GonzalezKevin Conley
    • Carlos GonzalezKevin Conley
    • G11C11/34
    • G06F11/106G06F11/1068G11C8/08
    • In order to maintain the integrity of data stored in a flash memory that are susceptible to being disturbed by operations in adjacent regions of the memory, disturb events cause the data to be read, corrected and re-written before becoming so corrupted that valid data cannot be recovered. The sometimes conflicting needs to maintain data integrity and system performance are balanced by deferring execution of some of the corrective action when the memory system has other high priority operations to perform. In a memory system utilizing very large units of erase, the corrective process is executed in a manner that is consistent with efficiently rewriting an amount of data much less than the capacity of a unit of erase.
    • 为了保持存储在闪速存储器中的数据的完整性,其易于被存储器的相邻区域中的操作干扰,干扰事件导致在变得如此损坏之前读取,校正和重新写入数据,使得有效数据不能 被收回。 当存储器系统具有执行其他高优先级操作时,通过推迟执行某些纠正措施来平衡维护数据完整性和系统性能的有时冲突的需求。 在使用非常大的擦除单位的存储器系统中,以与有效地重写远远小于擦除单位的容量的数据量相一致的方式执行校正处理。