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    • 2. 发明授权
    • P-channel NAND in isolated N-well
    • 隔离N阱中的P沟道NAND
    • US07671403B2
    • 2010-03-02
    • US11567257
    • 2006-12-06
    • Wei ZhengChi ChangMark RandolphSatoshi Torii
    • Wei ZhengChi ChangMark RandolphSatoshi Torii
    • H01L29/792
    • H01L27/115H01L27/11568
    • A device includes a substrate and multiple wells formed over the substrate and isolated from one another by dielectric trenches. The device further includes multiple memory elements formed over the wells, each of the memory elements extending approximately perpendicular to the wells and including a material doped with n-type impurities. The device also includes multiple source/drain regions, each source/drain region formed within one of multiple trenches and inside one of the plurality of wells between a pair of the memory elements, each of the source/drain regions implanted with p-type impurities. The device further includes a first substrate contact formed in a first one of the multiple trenches through a first one of the wells into the substrate and a second substrate contact formed in a second one of the multiple trenches through a second one of the wells into the substrate.
    • 一种器件包括衬底和形成在衬底上并由电介质沟槽彼此隔离的多个阱。 该器件还包括形成在阱上的多个存储元件,每个存储元件大致垂直于阱延伸并且包括掺杂有n型杂质的材料。 器件还包括多个源极/漏极区域,每个源极/漏极区域形成在多个沟槽中的一个内,并且在一对存储元件之间的多个阱中的一个内部,源极/漏极区域中的每一个注入p型杂质 。 所述器件还包括形成在所述多个沟槽中的第一个沟槽中的第一衬底接触件,穿过所述衬底中的第一孔,以及形成在所述多个沟槽中的第二个沟槽中的第二衬底接触件中的第二衬底接触入第 基质。
    • 3. 发明申请
    • P-CHANNEL NAND IN ISOLATED N-WELL
    • P-CHANNEL NAND在隔离N-WELL中
    • US20080135918A1
    • 2008-06-12
    • US11567257
    • 2006-12-06
    • Wei ZhengChi ChangMark RandolphSatoshi Torii
    • Wei ZhengChi ChangMark RandolphSatoshi Torii
    • H01L27/115
    • H01L27/115H01L27/11568
    • A device includes a substrate and multiple wells formed over the substrate and isolated from one another by dielectric trenches. The device further includes multiple memory elements formed over the wells, each of the memory elements extending approximately perpendicular to the wells and including a material doped with n-type impurities. The device also includes multiple source/drain regions, each source/drain region formed within one of multiple trenches and inside one of the plurality of wells between a pair of the memory elements, each of the source/drain regions implanted with p-type impurities. The device further includes a first substrate contact formed in a first one of the multiple trenches through a first one of the wells into the substrate and a second substrate contact formed in a second one of the multiple trenches through a second one of the wells into the substrate.
    • 一种器件包括衬底和形成在衬底上并由电介质沟槽彼此隔离的多个阱。 该器件还包括形成在阱上的多个存储元件,每个存储元件大致垂直于阱延伸并且包括掺杂有n型杂质的材料。 器件还包括多个源极/漏极区域,每个源极/漏极区域形成在多个沟槽中的一个内,并且在一对存储元件之间的多个阱中的一个内部,源极/漏极区域中的每一个注入p型杂质 。 所述器件还包括形成在所述多个沟槽中的第一个沟槽中的第一衬底接触件,穿过所述衬底中的第一孔,以及形成在所述多个沟槽中的第二个沟槽中的第二衬底接触件中的第二衬底接触入第 基质。
    • 4. 发明授权
    • Method and architecture for fast flash memory programming
    • 快速闪存编程的方法和架构
    • US07505328B1
    • 2009-03-17
    • US11504254
    • 2006-08-14
    • Satoshi Torii
    • Satoshi Torii
    • G11C16/00
    • G11C16/3418
    • Embodiments of the present invention disclose a method of utilizing a flash memory array to decrease programming time while maintaining sufficient read speeds. An array of cells is programmed and read in pages that are oriented in the column direction, parallel to the bit lines in the array. An erased cell in the present invention is a cell in the “off” state. According to the present invention a cell is programmed by lowering the threshold voltage of the cell, thereby turning the cell “on.” An array of cells is programmed read in a sector-by-sector method, wherein a sector consists of units situated diagonally adjacent to each other, and a unit consists of multiple parallel column-oriented pages.
    • 本发明的实施例公开了一种利用闪存阵列来减少编程时间同时保持足够的读取速度的方法。 单元格阵列被编程和读取在与列方向相对齐的页面上,与阵列中的位线平行。 本发明中的擦除单元是处于“关闭”状态的单元。 根据本发明,通过降低电池的阈值电压来编程电池,从而使电池“接通”。 单元阵列以逐扇区方式被读取,其中扇区由彼此对角地相邻的单元组成,并且单元由多个平行的列为列的页组成。
    • 5. 发明授权
    • Methods for fabricating flash memory devices
    • 制造闪存设备的方法
    • US07416940B1
    • 2008-08-26
    • US11418352
    • 2006-05-03
    • Satoshi ToriiHidehiko ShiraiwaYouseok SuhLei Xue
    • Satoshi ToriiHidehiko ShiraiwaYouseok SuhLei Xue
    • H01L21/336
    • H01L27/115H01L27/11568
    • Methods for fabricating a flash memory device are provided. A method comprises forming a plurality of gate stacks overlying a substrate. Each gate stack comprises a charge trapping layer and a control gate. The control gate is a first distance from the substrate. Adjacent gate stacks are a second distance apart. A cell spacer material layer is deposited and is etched to form a spacer about sidewalls of each gate stack. A source/drain impurity doped region is formed adjacent a first gate stack and a last gate stack. The first distance and the second distance are such that, when a voltage is applied to a gate stack during a READ operation, a fringing field is created between the control gate of the gate stack and the substrate and is sufficient to invert a portion of the substrate between the gate stack and an adjacent gate stack.
    • 提供了制造闪速存储器件的方法。 一种方法包括形成覆盖衬底的多个栅叠层。 每个栅极堆叠包括电荷捕获层和控制栅极。 控制栅极是离基板的第一距离。 相邻的门堆叠是第二个距离。 沉积电池间隔物材料层并被蚀刻以形成围绕每个栅极叠层的侧壁的间隔物。 在第一栅极堆叠和最后一个栅极堆叠附近形成源极/漏极杂质掺杂区域。 第一距离和第二距离使得当在读取操作期间将电压施加到栅极堆叠时,在栅极堆叠的控制栅极和衬底之间产生边缘场,并且足以将一部分 栅极堆叠和相邻栅极堆叠之间的衬底。
    • 6. 发明申请
    • Printed circuit board
    • 印刷电路板
    • US20070175659A1
    • 2007-08-02
    • US11655877
    • 2007-01-22
    • Satoshi Torii
    • Satoshi Torii
    • H05K1/16
    • H05K1/111H05K3/3468H05K2201/09781H05K2201/10689H05K2203/046Y02P70/611
    • Disclosed herein is a printed circuit board that allows a wiring pattern to be resistant to noise while maintaining solderability even in the case where a wiring pattern is drawn out from the lower part of a QFP. A printed circuit board on which a QFP is mounted by dip soldering is provided with two separate solder flow lands formed between a front soldering land group and a rear soldering land group and a wiring pattern formed between the two separate solder flow lands, wherein the wiring pattern is a land having a width of not less than 0.3 mm, and a space between the wiring pattern and the solder flow lands is not less than 0.4 mm nor more than 0.8 mm.
    • 这里公开了一种印刷电路板,即使在从QFP的下部引出布线图案的情况下,也能够在保持可焊性的同时,使布线图案耐噪声化。 通过浸焊在其上安装有QFP的印刷电路板设置有形成在前焊接组和后焊盘组之间的两个单独的焊料流动台面和形成在两个分离的焊料焊盘之间的布线图案,其中布线 图案是具有不小于0.3mm的宽度的焊盘,并且布线图案和焊料流焊台之间的间隔不小于0.4mm,也不大于0.8mm。
    • 8. 发明申请
    • Formation method of an array source line in NAND flash memory
    • US20060240617A1
    • 2006-10-26
    • US11113508
    • 2005-04-25
    • Satoshi Torii
    • Satoshi Torii
    • H01L21/336
    • H01L27/11568H01L21/28282H01L27/115
    • Methods 500 and 550 are disclosed for fabricating an array source line structure in a wafer of a NAND flash memory device. One method aspect 500 comprises forming 510 a first oxide 610 and a nitride layer 611 of an ONO stack 620 over a substrate 604 and an STI 409 or 136 of the wafer 602 and 102, respectively, for example, then implanting 512 an N+ ion species through the stack 620 into a source line region 606 of the wafer 602. The method 500 further comprises forming 514 a second oxide layer 612 of the ONO stack 620 over the nitride layer 611 and forming an alumina layer 622 over the completed ONO stack 620 of the wafer 602, removing the ONOA stack (620 and 622) and forming 514 a gate oxide layer in the periphery region (not shown), then etching 516 an opening 626 in the ONOA stack 620 in an array source line region 606 of the wafer 602, for example, using a local interconnect mask. The method 500, also includes cleaning 518 the wafer and forming a polysilicon layer 628 over the wafer 602, and selectively etching 520 the polysilicon layer 628 and etching 522 the alumina layer 622 to concurrently form wordline 130 and select drain gate structures 124 in bitline contact regions (605, 608), and select source gate 116 structures and array source line structures 634 in source line regions 606. Method 500 further includes implanting 522 an N− dopant ion species, for example, an MDD material in openings of source/drain regions 106 formed in the wafer 602. The method 500 also comprises forming 524 sidewall spacers in bitline contact regions 605 and source line contact regions 606, implanting 526 an array ion species in the bitline contact regions 605, and finally, forming a silicide layer 654 in the polysilicon layer 604 in a core region to form a conductive layer for gate (116, 124), bitline 110, wordline 130, the select gate 116, and the source line structure contacts 132. Thus, the method 500 permits concurrent formation of the word lines 130, select gates 116, 124 and the array source lines 112 simultaneously to simplify and reduce the cost of the process, and to improve the yield without etching into the STI 409 or the use of a local interconnect structure.
    • 9. 发明授权
    • Quad bit using hot-hole erase for CBD control
    • 四位使用热孔擦除用于CBD控制
    • US07113431B1
    • 2006-09-26
    • US11091982
    • 2005-03-29
    • Darlene HamiltonAlykhan MadhaniFatima BathulSatoshi Torii
    • Darlene HamiltonAlykhan MadhaniFatima BathulSatoshi Torii
    • G11C16/14
    • G11C16/3422G11C11/5671G11C16/0475G11C16/14G11C16/3418
    • The present invention pertains to a technique for erasing bits in a dual bit memory in a manner that maintains complementary bit disturb control of bit-pairs of memory cells wherein each bit of the dual bit memory cell can be programmed to multiple levels. One exemplary method comprises providing a word of memory cells after an initial erasure and programming of the bits of the word to one or more of the higher program levels. A disturb level is determined for each of the bit-pairs of the word. A combined disturb level is then computed that is representative of the individual disturb levels. A pattern of drain voltages is then applied to the word for a number of program passes until a target pattern is stored in the word of memory cells based on the combined disturb level and the unprogrammed bit of the bit-pairs is erased to a single program level. In this manner the present invention compensates for the disturbance level that exists between the complementary bit-pairs of the word, improves the Vt distribution at the program level of the erased state and thereby improves the accuracy of subsequent higher level programming operations and mitigates false or erroneous reads of the states of such program levels.
    • 本发明涉及一种在双位存储器中擦除比特的技术,该技术维持存储器单元的比特对的互补位干扰控制,其中双比特存储单元的每个比特可被编程为多个级别。 一个示例性方法包括在初始擦除之后提供一个单词的存储单元,并将该单词的位编程到一个或多个较高程序级。 为单词的每个位对确定干扰级别。 然后计算代表各个干扰级别的组合干扰级别。 然后将漏极电压的模式施加到多个程序遍的字,直到目标模式基于组合的干扰电平存储在存储器单元的字中,并且位对的未编程位被擦除到单个程序 水平。 以这种方式,本发明补偿存在于字的互补位对之间的干扰电平,改善了擦除状态的程序级的Vt分布,从而提高了后续更高级编程操作的准确性,并减轻了错误或 错误地读取这些程序级别的状态。