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    • 51. 发明授权
    • System and method for forming a bipolar switching PCMO film
    • 用于形成双极开关PCMO膜的系统和方法
    • US07235407B2
    • 2007-06-26
    • US10855942
    • 2004-05-27
    • Tingkai LiLawrence J. CharneskiWei-Wei ZhuangDavid R. EvansSheng Teng Hsu
    • Tingkai LiLawrence J. CharneskiWei-Wei ZhuangDavid R. EvansSheng Teng Hsu
    • H01L21/00
    • H01L45/04H01L45/1233H01L45/147H01L45/1616
    • A multi-layer PrxCa1-xMnO3 (PCMO) thin film capacitor and associated deposition method are provided for forming a bipolar switching thin film. The method comprises: forming a bottom electrode; depositing a nanocrystalline PCMO layer; depositing a polycrystalline PCMO layer; forming a multi-layer PCMO film with bipolar switching properties; and, forming top electrode overlying the PCMO film. If the polycrystalline layers are deposited overlying the nanocrystalline layers, a high resistance can be written with narrow pulse width, negative voltage pulses. The PCMO film can be reset to a low resistance using a narrow pulse width, positive amplitude pulse. Likewise, if the nanocrystalline layers are deposited overlying the polycrystalline layers, a high resistance can be written with narrow pulse width, positive voltage pulses, and reset to a low resistance using a narrow pulse width, negative amplitude pulse.
    • 提供了多层Pr 1 x 1 x x MnO 3(PCMO)薄膜电容器和相关的沉积方法,用于形成双极开关 薄膜。 该方法包括:形成底部电极; 沉积纳米晶体PCMO层; 沉积多晶的PCMO层; 形成具有双极开关特性的多层PCMO膜; 并且形成覆盖PCMO膜的顶部电极。 如果多晶层沉积在纳米晶层之上,则可以用窄脉冲宽度,负电压脉冲写入高电阻。 PCMO膜可以使用窄脉冲宽度,正幅度脉冲复位为低电阻。 同样,如果纳米晶层沉积在多晶层上,则可以用窄脉冲宽度,正电压脉冲写入高电阻,并使用窄脉冲宽度,负幅度脉冲将其复位为低电阻。
    • 52. 发明授权
    • Memory cell with an asymmetric crystalline structure
    • 具有不对称晶体结构的记忆单元
    • US07214583B2
    • 2007-05-08
    • US11130983
    • 2005-05-16
    • Sheng Teng HsuTingkai LiDavid R. EvansWei-Wei ZhuangWei Pan
    • Sheng Teng HsuTingkai LiDavid R. EvansWei-Wei ZhuangWei Pan
    • H01L21/8242
    • G11C13/0007G11C2213/31H01L45/04H01L45/1233H01L45/147H01L45/1608H01L45/1625
    • Asymmetrically structured memory cells and a fabrication method are provided. The method comprises: forming a bottom electrode; forming an electrical pulse various resistance (EPVR) first layer having a polycrystalline structure over the bottom electrode; forming an EPVR second layer adjacent the first layer, with a nano-crystalline or amorphous structure; and, forming a top electrode overlying the first and second EPVR layers. EPVR materials include CMR, high temperature super conductor (HTSC), or perovskite metal oxide materials. In one aspect, the EPVR first layer is deposited with a metalorganic spin coat (MOD) process at a temperature in the range between 550 and 700 degrees C. The EPVR second layer is formed at a temperature less than, or equal to the deposition temperature of the first layer. After a step of removing solvents, the MOD deposited EPVR second layer is formed at a temperature less than, or equal to the 550 degrees C.
    • 提供了非对称结构的存储单元和制造方法。 该方法包括:形成底部电极; 在底部电极上形成具有多晶结构的电脉冲各种电阻(EPVR)第一层; 用纳米结晶或无定形结构形成邻近第一层的EPVR第二层; 并且形成覆盖在第一和第二EPVR层上的顶部电极。 EPVR材料包括CMR,高温超导体(HTSC)或钙钛矿金属氧化物材料。 在一个方面,EPVR第一层在550-700℃的温度范围内用金属有机旋涂(MOD)工艺沉积.EPVR第二层是在小于或等于沉积温度 的第一层。 在除去溶剂的步骤之后,将MOD沉积的EPVR第二层在小于或等于550℃的温度下形成。
    • 53. 发明授权
    • Cross-point resistor memory array
    • 交叉点电阻存储器阵列
    • US07193267B2
    • 2007-03-20
    • US10971204
    • 2004-10-21
    • Sheng Teng HsuWei PanWei-Wei Zhuang
    • Sheng Teng HsuWei PanWei-Wei Zhuang
    • H01L29/76
    • G11C11/15G11C11/5685G11C13/0007G11C2213/31G11C2213/72H01L27/24
    • Resistive cross-point memory devices are provided, along with methods of manufacture and use. The memory devices are comprised by an active layer of resistive memory material interposed between upper electrodes and lower electrodes. A bit region located within the resistive memory material at the cross-point of an upper electrode and a lower electrode has a resistivity that can change through a range of values in response to application of one, or more, voltage pulses. Voltage pulses may be used to increase the resistivity of the bit region, decrease the resistivity of the bit region, or determine the resistivity of the bit region. A diode is formed between at the interface between the resistive memory material and the lower electrodes, which may be formed as doped regions. The resistive cross-point memory device is formed by doping lines within a substrate one polarity, and then doping regions of the lines the opposite polarity to form diodes. Bottom electrodes are then formed over the diodes with a layer of resistive memory material overlying the bottom electrodes. Top electrodes may then be added at an angled to form a cross-point array defined by the lines and the top electrodes.
    • 提供了电阻式交叉点存储器件,以及制造和使用方法。 存储器件由介于上电极和下电极之间的电阻存储器材料的有源层组成。 在上电极和下电极的交叉点处位于电阻性存储器材料内的位区域具有响应于施加一个或更多个电压脉冲而能够在一定范围内变化的电阻率。 可以使用电压脉冲来增加比特区域的电阻率,降低比特区域的电阻率,或者确定比特区域的电阻率。 在电阻性存储器材料和下电极之间的界面处形成二极管,其可以形成为掺杂区域。 电阻性交叉点存储器件通过在衬底内掺杂一个极性而形成,然后将相反极性的线的掺杂区域形成二极管。 然后在二极管上形成一层电阻记忆材料覆盖底部电极的底部电极。 然后可以以倾斜的角度添加顶部电极以形成由线和顶部电极限定的交叉点阵列。
    • 54. 发明授权
    • Superlattice nanocrystal Si-SiO2 electroluminescence device
    • 超晶格纳米晶Si-SiO2电致发光器件
    • US07166485B1
    • 2007-01-23
    • US11175797
    • 2005-07-05
    • Tingkai LiSheng Teng HsuWei-Wei Zhuang
    • Tingkai LiSheng Teng HsuWei-Wei Zhuang
    • H01L21/00H01L29/06
    • H01L33/34B82Y20/00H01L33/0012
    • A superlattice nanocrystal Si—SiO2 electroluminescence (EL) device and fabrication method have been provided. The method comprises: providing a Si substrate; forming an initial SiO2 layer overlying the Si substrate; forming an initial polysilicon layer overlying the initial SiO2 layer; forming SiO2 layer overlying the initial polysilicon layer; repeating the polysilicon and SiO2 layer formation, forming a superlattice; doping the superlattice with a rare earth element; depositing an electrode overlying the doped superlattice; and, forming an EL device. In one aspect, the polysilicon layers are formed by using a chemical vapor deposition (CVD) process to deposit an amorphous silicon layer, and annealing. Alternately, a DC-sputtering process deposits each amorphous silicon layer, and following the forming of the superlattice, polysilicon is formed by annealing the amorphous silicon layers. Silicon dioxide can be formed by either thermal annealing or by deposition using a DC-sputtering process.
    • 已经提供了超晶格纳米晶Si-SiO 2电致发光(EL)器件及其制造方法。 该方法包括:提供Si衬底; 形成覆盖Si衬底的初始SiO 2层; 形成覆盖初始SiO 2层的初始多晶硅层; 形成覆盖初始多晶硅层的SiO 2层; 重复多晶硅和SiO 2层形成,形成超晶格; 用稀土元素掺杂超晶格; 沉积覆盖掺杂超晶格的电极; 并且形成EL器件。 在一个方面,通过使用化学气相沉积(CVD)工艺沉积非晶硅层和退火来形成多晶硅层。 或者,DC溅射工艺沉积每个非晶硅层,并且在形成超晶格之后,通过退火非晶硅层形成多晶硅。 可以通过热退火或通过使用DC溅射工艺的沉积来形成二氧化硅。
    • 56. 发明授权
    • Single-phase c-axis doped PGO ferroelectric thin films
    • 单相c轴掺杂PGO铁电薄膜
    • US07009231B2
    • 2006-03-07
    • US11046620
    • 2005-01-28
    • Fengyan ZhangWei-Wei ZhuangJong-Jan LeeSheng Teng Hsu
    • Fengyan ZhangWei-Wei ZhuangJong-Jan LeeSheng Teng Hsu
    • H01L29/94
    • H01L21/31691H01L28/55H01L41/317
    • A method for forming a doped PGO ferroelectric thin film, and related doped PGO thin film structures are described. The method comprising: forming either an electrically conductive or electrically insulating substrate; forming a doped PGO film overlying the substrate; annealing; crystallizing; and, forming a single-phase c-axis doped PGO thin film overlying the substrate, having a Curie temperature of greater than 200 degrees C. Forming a doped PGO film overlying the substrate includes depositing a doped precursor in the range between 0.1N and 0.5N, with a molecular formula of Pby-xMxGe3O11, where: M is a doping element; y=4.5 to 6; and, x=0.1 to 1. The element M can be Sn, Ba, Sr, Cd, Ca, Pr, Ho, La, Sb, Zr, or Sm.
    • 描述了用于形成掺杂的PGO铁电薄膜的方法以及相关的掺杂PGO薄膜结构。 该方法包括:形成导电或电绝缘的衬底; 在衬底上形成掺杂的PGO膜; 退火; 结晶 并且形成覆盖在衬底上的单相c轴掺杂的PGO薄膜,其居里温度大于200℃。形成覆盖在衬底上的掺杂PGO膜包括在0.1N和0.5之间的范围内沉积掺杂的前体 N,具有分子式为Pb x Si x N x N x O 11,其中:M是掺杂物 元件; y = 4.5〜6; x = 0.1〜1。元素M可以是Sn,Ba,Sr,Cd,Ca,Pr,Ho,La,Sb,Zr或Sm。
    • 59. 发明授权
    • 1R1D R-RAM array with floating p-well
    • 1R1D具有浮动p-well的R-RAM阵列
    • US06849564B2
    • 2005-02-01
    • US10376796
    • 2003-02-27
    • Sheng Teng HsuWei PanWei-Wei ZhuangFengyan Zhang
    • Sheng Teng HsuWei PanWei-Wei ZhuangFengyan Zhang
    • G11C13/00H01L27/10H01L27/24H01L21/00
    • H01L27/24G11C13/0007G11C2213/31G11C2213/72H01L27/10
    • A low-capacitance one-resistor/one-diode (1R1D) R-RAM array with a floating p-well is provided. The fabrication method comprises: forming an integrated circuit (IC) substrate; forming an n-doped buried layer (buried n layer) of silicon overlying the substrate; forming n-doped silicon sidewalls overlying the buried n layer; forming a p-doped well of silicon (p-well) overlying the buried n layer; and, forming a 1R1D R-RAM array overlying the p-well. Typically, the combination of the buried n layer and the n-doped sidewalls form an n-doped well (n-well) of silicon. Then, the p-well is formed inside the n-well. In other aspects, the p-well has sidewalls, and the method further comprises: forming an oxide insulator overlying the p-well sidewalls, between the n-well and the R-RAM array.
    • 提供具有浮动p-well的低电容单电阻/单二极管(1R1D)R-RAM阵列。 该制造方法包括:形成集成电路(IC)衬底; 形成覆盖在衬底上的硅的n掺杂掩埋层(n层); 形成覆盖掩埋n层的n掺杂硅侧壁; 形成覆盖在掩埋n层上的硅(p阱)的p掺杂阱; 并且形成覆盖p阱的1R1D R-RAM阵列。 通常,掩埋n层和n掺杂侧壁的组合形成硅的n掺杂阱(n阱)。 然后,p阱形成在n阱内。 在其他方面,p阱具有侧壁,并且该方法还包括:在n阱和R-RAM阵列之间形成覆盖p阱侧壁的氧化物绝缘体。