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    • 152. 发明授权
    • Structure of discrete NROM cell
    • 离散NROM单元的结构
    • US06670672B1
    • 2003-12-30
    • US10175839
    • 2002-06-21
    • Kent Kuohua ChangErh-Kun Lai
    • Kent Kuohua ChangErh-Kun Lai
    • H01L29792
    • H01L27/11568H01L27/115H01L29/66833H01L29/792
    • A discrete NROM cell, at least comprising: a substrate; a first ON stacking gate and a second ON stacking gate over the substrate, wherein the ON stacking gate is a structure having a nitride layer over a bottom oxide layer; an oxide layer formed over the substrate covering the first and second ON stacking gate; a polysilicon layer formed over the oxide layer; and the source/drain implanted in the substrate and next to the ON stacking gates. The structure of discrete NROM cell of the invention can solve the problem of the electrons being trapped in the nitride layer of NROM cell, and also control the source/drain implant and ON structure at precisely symmetrical positions.
    • 一个离散的NROM电池,至少包括:一个衬底; 在所述衬底上的第一ON堆叠栅极和第二ON堆叠栅极,其中所述ON堆叠栅极是在底部氧化物层上方具有氮化物层的结构; 形成在所述基板上的覆盖所述第一和第二ON堆叠栅极的氧化物层; 形成在所述氧化物层上的多晶硅层; 并且注入到衬底中并且靠近ON堆叠栅极的源极/漏极。 本发明的离散NROM电池的结构可以解决电子被捕获在NROM电池的氮化物层中的问题,并且还可以在精确对称的位置控制源极/漏极注入和ON结构。
    • 153. 发明授权
    • Method of forming a MIM capacitor
    • 形成MIM电容器的方法
    • US06413815B1
    • 2002-07-02
    • US09682069
    • 2001-07-17
    • Erh-Kun LaiShyi-Shuh PanChien-Hung LiuShou-Wei HuangYing-Tso Chen
    • Erh-Kun LaiShyi-Shuh PanChien-Hung LiuShou-Wei HuangYing-Tso Chen
    • H01L218242
    • H01L21/76808H01L23/5223H01L23/53238H01L28/60H01L2924/0002H01L2924/00
    • A method of simultaneously forming a dual damascence runner and a metal-insulator-metal (MIM) capacitor on a semiconductor wafer. The semiconductor wafer has a first dielectric layer, which has at least a first conductive layer and at least a bottom electrode of the MIM capacitor. The surfaces of the first conductive layer and the bottom electrode of the MIM capacitor are covered with a barrier layer. A second dielectric layer, a stop layer and a third dielectric layer are formed on the surface of the barrier layer and form a sandwiched structure. A first photoresist layer is formed and the third dielectric layer is anisotropically etched down to the stop layer, thus forming a trench and an opening in the third dielectric layer above the conductive layer and the bottom electrode of the MIM capacitor. A second photoresist layer is formed and the stop layer and the second dielectric layer are etched at a bottom of the opening down to the surface of the barrier layer so as to form an opening of the top electrode. A third photoresist layer is formed and the stop layer, the second dielectric layer and the barrier layer are etched through the contact opening down to the surface of the first conductive layer so as to form a contact hole.
    • 一种在半导体晶片上同时形成双重阻力流道和金属 - 绝缘体 - 金属(MIM)电容器的方法。 半导体晶片具有至少具有MIM电容器的第一导电层和至少底部电极的第一电介质层。 MIM电容器的第一导电层和底部电极的表面被阻挡层覆盖。 在阻挡层的表面上形成第二电介质层,阻挡层和第三电介质层,并形成夹层结构。 形成第一光致抗蚀剂层,并且将第三介电层各向异性地向下蚀刻到停止层,从而在MIM电容器的导电层和底部电极上方的第三介电层中形成沟槽和开口。 形成第二光致抗蚀剂层,并且将阻止层和第二介电层在开口的底部蚀刻到阻挡层的表面,以形成顶部电极的开口。 形成第三光致抗蚀剂层,并且通过接触开口将停止层,第二介电层和阻挡层蚀刻到第一导电层的表面,以形成接触孔。
    • 155. 发明授权
    • Method for forming shallow trench isolation
    • 形成浅沟槽隔离的方法
    • US06355539B1
    • 2002-03-12
    • US09849245
    • 2001-05-07
    • Erh-Kun LaiShou-Wei HuangYu-Ping Huang
    • Erh-Kun LaiShou-Wei HuangYu-Ping Huang
    • H01L2176
    • H01L21/76232
    • A method for forming a shallow trench isolation is disclosed. The method avoids using any silicon nitride material to prevent the kooi effect and use spacers to protect the corner portions of the STI. A conductive layer is used to replace the conventional used silicon nitride layer in the formation of conventional STI regions. The invention also uses a dielectric layer comprising a pad oxide layer as a sacrificial oxide layer so that an additional sacrificial oxide layer is no longer needed. The conductive layer will be oxidized together with the substrate in the formation of the gate oxide layer so that the isolation quality will not be degraded.
    • 公开了一种用于形成浅沟槽隔离的方法。 该方法避免使用任何氮化硅材料来防止kooi效应并使用间隔物来保护STI的拐角部分。 在传统的STI区域的形成中,使用导电层代替常规使用的氮化硅层。 本发明还使用包括衬垫氧化物层作为牺牲氧化物层的电介质层,使得不再需要额外的牺牲氧化物层。 在形成栅极氧化物层时,导电层将与衬底一起被氧化,使得隔离质量不会降低。
    • 156. 发明授权
    • Dielectric charge trapping memory cells with redundancy
    • 介质电荷捕获具有冗余的存储单元
    • US09019771B2
    • 2015-04-28
    • US13661723
    • 2012-10-26
    • Hsiang-Lan LungYen-Hao ShihErh-Kun LaiMing-Hsiu Lee
    • Hsiang-Lan LungYen-Hao ShihErh-Kun LaiMing-Hsiu Lee
    • G11C16/06G11C16/04G11C16/10
    • G11C16/0475G11C16/10
    • A memory cell array of dielectric charge trapping memory cells and method for performing program, read and erase operations on the memory cell array that includes bits stored at charge trapping sites in adjacent memory cells. A bit of information is stored at a first charge trapping site in a first memory cell and a second charge trapping site in a second adjacent memory cell. Storing charge at two trapping sites in adjacent memory cells increases data retention rates of the array of memory cells as each charge trapping site can be read to represent the data that is stored at the data site. Each corresponding charge trapping site can be read independently and in parallel so that the results can be compared to determine the data value that is stored at the data site in an array of dielectric charge trapping memory cells.
    • 介质电荷俘获存储器单元的存储单元阵列和用于对存储在相邻存储器单元中的电荷俘获位置处存储的位的存储单元阵列执行编程,读取和擦除操作的方法。 一些信息存储在第一存储单元中的第一电荷捕获位点和第二相邻存储单元中的第二电荷捕获位点。 在相邻存储器单元中的两个捕获位置处存储电荷增加了存储器单元阵列的数据保留率,因为可以读取每个电荷捕获位点以表示存储在数据站点的数据。 可以独立地并行地读取每个对应的电荷俘获位点,以便比较结果以确定存储在介电电荷俘获存储器单元阵列中的数据位置处的数据值。