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    • 3. 发明授权
    • Method for reading a non-volatile memory cell adjacent to an inactive region of a non-volatile memory cell array
    • 用于读取与非易失性存储单元阵列的非活动区域相邻的非易失性存储单元的方法
    • US06771545B1
    • 2004-08-03
    • US10353558
    • 2003-01-29
    • Edward HsiaEric AjimineDarlene G. HamiltonPauling ChenMing-Huei ShiehMark W. RandolphEdward RunnionYi He
    • Edward HsiaEric AjimineDarlene G. HamiltonPauling ChenMing-Huei ShiehMark W. RandolphEdward RunnionYi He
    • G11C1604
    • G11C29/82G11C16/0491G11C16/3404
    • An array of non-volatile memory cells includes active columns of cells wherein a data pattern may be stored adjacent to damaged or inactive columns wherein data is not stored. A method of storing a data pattern and reproducing the data pattern within such an array comprises storing a charge within a selected plurality of the memory cells within the active column. The selected plurality of memory cells represents a portion of the data pattern. An inactive memory cell programming pattern is identified. The inactive memory cell programming pattern identifies all, or a selected plurality, of the memory cells in the inactive column in which a charge is to be stored for the purpose of periodically storing a charge in the memory cells first inactive column to prevent over erasure, during bulk erase, and leakage from the inactive cells to adjacent active cells. A charge is stored on the selected plurality of the memory cells in the first inactive column. The data pattern is reproduced reading each memory cell within the first active column.
    • 非易失性存储器单元的阵列包括有效的单元格列,其中数据模式可以存储在与不存储数据的损坏或非活动列相邻的位置。 存储数据模式并在其中再现数据模式的方法包括将电荷存储在活动列内的所选择的多个存储单元内。 所选择的多个存储单元表示数据模式的一部分。 识别非活动存储器单元编程模式。 非活动存储器单元编程模式识别要在其中存储电荷的所述非活动列中的所有或选定的多个存储单元,以便在存储单元的第一非活动列中周期性地存储电荷以防止过度擦除, 在批量擦除期间以及从非活性电池泄漏到相邻的活性电池。 在第一非活动列中的所选择的多个存储器单元上存储电荷。 读取在第一活动列内的每个存储单元的数据模式。
    • 5. 发明授权
    • Pre-charge method for reading a non-volatile memory cell
    • 用于读取非易失性存储单元的预充电方法
    • US06788583B2
    • 2004-09-07
    • US10307749
    • 2002-12-02
    • Yi HeEdward F. RunnionZhizheng LiuMark W. RandolphDarlene G. HamiltonPauling ChenBinh Le
    • Yi HeEdward F. RunnionZhizheng LiuMark W. RandolphDarlene G. HamiltonPauling ChenBinh Le
    • G11C1606
    • G11C7/12G11C16/0475G11C16/24
    • A method of detecting a charge stored on a charge storage region of a first dual bit dielectric memory cell within an array of dual bit dielectric memory cells comprises grounding a first bit line that forms a source junction with a channel region of the first memory cell. A high voltage is applied to a gate of the first memory cell and to a second bit line that is the next bit line to the right of the first bit line and separated from the first bit line only by the channel region. A third bit line, that is the next bit line to the right of the second bit line, is isolated such that its potential is effected only by its junctions with the a second channel region and a third channel region on opposing sides of the third bit line. A high voltage is applied to a pre-charge bit line that is to the right of the third bit line and current flow is detected at the second bit line to determine the programmed status of a source bit of the memory cell.
    • 一种检测存储在双位介质存储器单元阵列内的第一双位介质存储单元的电荷存储区域上的电荷的方法包括使与第一存储单元的沟道区形成源极结的第一位线接地。 高电压被施加到第一存储单元的栅极和第二位线,第二位线是第一位线右侧的下一个位线,并且仅与通道区域从第一位线分离。 位于第二位线右侧的下一个位线的第三位线是隔离的,使得其电位仅由其与第二通道区域的结和仅在第三位的相对侧上的第三通道区域 线。 将高电压施加到位于第三位线右侧的预充电位线,并且在第二位线处检测电流以确定存储器单元的源位的编程状态。
    • 6. 发明授权
    • Erase method for a dual bit memory cell
    • 双位存储单元的擦除方法
    • US06901010B1
    • 2005-05-31
    • US10119366
    • 2002-04-08
    • Darlene G. HamiltonEric M. AjimineBinh LeEdward HsiaKen Tanpairoj
    • Darlene G. HamiltonEric M. AjimineBinh LeEdward HsiaKen Tanpairoj
    • G11C16/02G11C16/04G11C7/00
    • G11C16/107G11C16/0475G11C16/3409G11C16/3445G11C2216/18
    • An erase methodology of flash memory cells in a multi-bit memory array with bits disposed in normal and complimentary locations. An erase verify of bits in the normal locations is performed and if a bit in the normal location fails and if the maximum erase pulse count has not been reached, erase pulses are applied to both the normal bit and the complimentary bit. An erase verify of bits in the complimentary locations is performed and if a bit in the complimentary location fails and if the maximum erase pulse count has not been reached, erase pulses are applied to both the complimentary and the normal bit locations. If the bits pass the erase verify, the bits are subjected to a soft programming verify. If the bits are overerased and if the soft programming pulse count has not been reached a soft programming pulse is applied to the overerased bit.
    • 位于正常和互补位置的位的多位存储器阵列中的闪存单元的擦除方法。 执行正常位置中的位的擦除验证,并且如果正常位置中的位失败,并且如果还没有达到最大擦除脉冲计数,则将擦除脉冲施加到正常位和补充位。 执行补充位置中的位的擦除验证,并且如果补充位中的位失败,并且如果还没有达到最大擦除脉冲计数,则擦除脉冲将被施加到互补位和正常位位置。 如果这些位通过擦除验证,则这些位经过软编程验证。 如果这些位过高,并且如果没有达到软编程脉冲计数,则软编程脉冲将被施加到过高位。
    • 8. 发明授权
    • Extending flash memory data retension via rewrite refresh
    • 通过重写刷新来扩展闪存数据
    • US08938655B2
    • 2015-01-20
    • US11961772
    • 2007-12-20
    • Darlene G. HamiltonMark W. RandolphDon Carlos DarlingRon Kornitz
    • Darlene G. HamiltonMark W. RandolphDon Carlos DarlingRon Kornitz
    • G11C29/00G11C7/00G11C16/34G11C16/10
    • G11C16/3418G11C16/10G11C16/3431
    • Providing for extended data retention of flash memory devices by program state rewrite is disclosed herein. By way of example, a memory cell or group of memory cells can be evaluated to determine a program state of the cell(s). If the cell(s) is in a program state, as opposed to a natural or non-programmed state, a charge level, voltage level and/or the like can be rewritten to a default level associated with the program state, without erasing the cell(s) first. Accordingly, conventional mechanisms for refreshing cell program state that require rewriting and erasing, typically degrading storage capacity of the memory cell, can be avoided. As a result, data stored in flash memory can be refreshed in a manner that mitigates loss of memory integrity, providing substantial benefits over conventional mechanisms that can degrade memory integrity at a relatively high rate.
    • 本文公开了通过程序状态改写提供闪速存储器件的扩展数据保存。 作为示例,可以评估存储器单元或存储器单元组以确定单元的程序状态。 如果单元处于编程状态,与自然或非编程状态相反,则可以将充电电平,电压电平和/或类似物重写为与程序状态相关联的默认电平,而不擦除 电池第一。 因此,可以避免用于刷新需要重写和擦除的通常降低存储器单元的存储容量的小区程序状态的常规机制。 结果,存储在闪速存储器中的数据可以以减轻内存完整性损失的方式刷新,相对于可以以相对较高的速率降低存储器完整性的传统机制提供实质的益处。