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    • 91. 发明授权
    • Method and system for testing tunnel oxide on a memory-related structure
    • 用于在存储器相关结构上测试隧道氧化物的方法和系统
    • US06808945B1
    • 2004-10-26
    • US10339536
    • 2003-01-08
    • Zhigang WangHsiao Han ThioNian Yang
    • Zhigang WangHsiao Han ThioNian Yang
    • G01R3126
    • H01L22/34G11C16/04G11C29/006G11C29/50G11C2029/0403G11C2029/5002G11C2029/5006H01L21/28282
    • A method for testing tunnel oxide on a memory-related structure. In one method embodiment, the present invention accesses a memory-related structure during a manufacturing process. Next, the present embodiment applies a constant voltage to a gate of the memory-related structure. The present embodiment then measures a first gate current for the memory-related structure when the constant voltage is initially applied, to obtain a first value. Next, the present embodiment measures a second gate current for the memory-related structure a period of time after the constant voltage is initially applied to obtain a second value. A calculation of ratio of the second value to the first value is then performed. The present embodiment then generates a graph of the first value and the ratio of the second value to the first value as a function of time, wherein a decrease in the graph signifies stress induced electron trapping behavior of the tunnel oxide.
    • 一种用于在存储器相关结构上测试隧道氧化物的方法。 在一个方法实施例中,本发明在制造过程中访问存储器相关结构。 接下来,本实施例对存储器相关结构的栅极施加恒定电压。 然后,本实施例在最初施加恒定电压时测量用于存储器相关结构的第一栅极电流,以获得第一值。 接下来,本实施例在初始施加恒定电压之后的一段时间内测量存储器相关结构的第二栅极电流,以获得第二值。 然后执行第二值与第一值的比率的计算。 本实施例然后产生第一值和第二值与第一值的比值作为时间的函数的曲线图,其中图形的减小表示隧道氧化物的应力诱导的电子捕获行为。
    • 97. 发明授权
    • Use of high-K dielectric material for ONO and tunnel oxide to improve floating gate flash memory coupling
    • 对于ONO和隧道氧化物使用高K介电材料来改善浮栅闪存耦合
    • US06617639B1
    • 2003-09-09
    • US10176594
    • 2002-06-21
    • Zhigang WangXin GuoYue-Song He
    • Zhigang WangXin GuoYue-Song He
    • H01L29788
    • H01L21/28194H01L21/28273H01L29/513H01L29/517H01L29/518H01L29/66825H01L29/7883
    • A floating gate flash memory device including a substrate comprising a source region, a drain region, and a channel region positioned therebetween; a floating gate electrode positioned above the channel region and separated from the channel region by a tunnel dielectric material layer; and a control gate electrode positioned above the floating gate electrode and separated from the floating gate electrode by an interpoly dielectric layer, the interpoly dielectric layer comprising a modified ONO structure having a bottom dielectric material layer adjacent to the floating gate electrode, a top dielectric material layer adjacent to the control gate electrode, and a center layer comprising a nitride and positioned between the bottom dielectric material layer and the top dielectric material layer, in which the tunnel dielectric material layer, and at least one of the bottom dielectric material layer and the top dielectric material layer, comprise a high-K dielectric material.
    • 一种浮栅闪存器件,包括:衬底,包括源极区,漏极区和位于其间的沟道区; 位于通道区域上方并通过隧道介电材料层与沟道区分离的浮栅电极; 以及控制栅电极,其位于所述浮置栅电极的上方,并且通过间隔电介质层与所述浮栅电极分离,所述互聚电介质层包括具有与所述浮栅电极相邻的底电介质材料层的修饰的ONO结构,顶介电材料 层,以及包括氮化物并位于底部电介质材料层和顶部电介质材料层之间的中心层,其中隧道电介质材料层和底部电介质材料层和底部电介质材料层中的至少一个 顶部介电材料层,包括高K电介质材料。
    • 98. 发明授权
    • Method of forming low resistance common source line for flash memory devices
    • 形成用于闪存器件的低电阻公共源线的方法
    • US06596586B1
    • 2003-07-22
    • US10152747
    • 2002-05-21
    • Nian YangUn Soon KimZhigang Wang
    • Nian YangUn Soon KimZhigang Wang
    • H01L21336
    • H01L27/11521H01L27/115H01L27/11517
    • A low resistance common source line (12) for high performance NOR-type flash memories cells in different bit-lines but on the same word-line is used to reduce the memory core cell size and to improve the circuit density as the device dimensions are scaled down. For advanced flash memory technology where shallow trench isolation (STI) (4) is used, the common source formation (12) is facilitated by a VCI implant (11) performed before STI field oxide fill (5). The process sequence is to first form the trenches (4) for the subsequent STI (4), then apply the VCI mask (10) and perform the VCI high energy ion implant (11) to form the “future” source line (12). Then field oxide fill (5) is deposited into the STI trench (4) to form the desired field isolation structures and the memory circuit is completed using conventional techniques.
    • 用于不同位线但在相同字线上的高性能NOR型闪速存储器单元的低电阻公共源线(12)用于减小存储器核心单元的尺寸并提高电路密度,因为器件尺寸 缩小比例。 对于使用浅沟槽隔离(STI)(4))的高级闪存技术,通过在STI场氧化物填充(5)之前执行的VCI注入(11)来促进公共源形成(12)。 处理顺序是首先形成随后的STI(4)的沟槽(4),然后施加VCI掩模(10)并执行VCI高能离子注入(11)以形成“未来”源极线(12) 。 然后将场氧化物填充物(5)沉积到STI沟槽(4)中以形成所需的场隔离结构,并且使用常规技术完成存储器电路。
    • 99. 发明授权
    • Test structure apparatus for measuring standby current in flash memory devices
    • 用于测量闪存器件中待机电流的测试结构设备
    • US06593590B1
    • 2003-07-15
    • US10112976
    • 2002-03-28
    • Nian YangZhigang WangTien-Chun Yang
    • Nian YangZhigang WangTien-Chun Yang
    • H01L2906
    • H01L22/34G11C16/04G11C29/50G11C2029/5006H01L27/105
    • A flash memory microelectronic chip (1000) is formed with at least one integral test structure (100) for electrical measurement of transistor leakage current from the low voltage peripheral transistors. The invention is a very wide finger-type transistor (9, 10) with minimum channel length and a width of approximately 150,000 &mgr;m, equal to the estimated total width of the same type of periphery transistors in the chip circuit. One low voltage NMOS (9) and one low voltage PMOS finger-type transistor (10) allow monitoring of the standby current contribution from these two types of periphery transistors. Regular current or voltage tests can be applied to the test structure, thus providing information on the correlation of standby currents with single transistor off-state leakage currents.
    • 闪存微电子芯片(1000)形成有至少一个整体测试结构(100),用于电子测量来自低电压外围晶体管的晶体管漏电流。 本发明是一种非常宽的手指式晶体管(9,10),其具有最小的通道长度和大约150,000μm的宽度,等于芯片电路中相同类型的外围晶体管的估计总宽度。 一个低电压NMOS(9)和一个低电压PMOS指状晶体管(10)允许监测来自这两种类型的外围晶体管的待机电流贡献。 可以对测试结构进行常规电流或电压测试,从而提供关于待机电流与单晶体管截止状态漏电流的相关性的信息。
    • 100. 发明授权
    • Method of channel hot electron programming for short channel NOR flash arrays
    • 用于短通道NOR闪存阵列的通道热电子编程方法
    • US06510085B1
    • 2003-01-21
    • US09861031
    • 2001-05-18
    • Richard FastowSheunghee ParkZhigang WangSameer HaddadChi Chang
    • Richard FastowSheunghee ParkZhigang WangSameer HaddadChi Chang
    • G11C1604
    • G11C16/3409G11C16/10G11C16/12G11C16/3404
    • Methods of programming and soft programming short channel NOR flash memory cells that reduce the programming currents and column leakages during both programming and soft programming while maintaining fast programming speeds. During programming, a voltage of between 7 and 10 volts is applied to the control gate, a voltage of between 4 and 6 volts; is applied to the drain, a voltage of between 0.5 and 2.0 volts is applied to the source and a voltage of between minus 2 and minus 0.5 volts is applied to the substrate of the selected cell to be programmed. During soft programming, a voltage of between 0.5 and 4.5 volts is applied to the control gates, between 4 and 5.5 volts is applied to the drains, between 0.5 and 2 volts is applied to the sources and between minus 2.0 and minus 0.5 volts is applied to the substrates of the memory cells.
    • 编程和软编程短节目NOR闪存单元的方法,可在编程和软编程期间减少编程电流和列泄漏,同时保持快速的编程速度。 在编程期间,7至10伏之间的电压施加到控制栅极,电压在4和6伏之间; 施加到漏极,将0.5至2.0伏之间的电压施加到源极,并且在所述要编程的所选择的单元的衬底之间施加负2和负0.5伏之间的电压。 在软编程期间,向控制栅极施加0.5至4.5伏之间的电压,在漏极之间施加4至5.5伏之间的电压,施加0.5至2伏之间的电压,并施加负2.0至负0.5伏之间 到存储单元的基板。