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    • 3. 发明授权
    • Method and processing system for monitoring status of system components
    • 监控系统组件状态的方法和处理系统
    • US07479454B2
    • 2009-01-20
    • US10674703
    • 2003-09-30
    • David L. O'MearaDaniel Craig BurdettStephen H. CabralGert LeusinkJohn William KostenkoCory Wajda
    • David L. O'MearaDaniel Craig BurdettStephen H. CabralGert LeusinkJohn William KostenkoCory Wajda
    • H01L21/302
    • H01L21/67276B81C99/0065B81C2201/0138H01L21/67253
    • A method and system for monitoring status of a system component during a process. The method includes exposing a system component to a reactant gas during a process, where the reactant gas is capable of etching the system component material to form an erosion product, and monitoring release of the erosion product during the process to determine status of the system component. Processes that can be monitored include a chamber cleaning process, a chamber conditioning process, a substrate etching process, and a substrate film formation process. The system component can be a consumable system part such as a process tube, a shield, a ring, a baffle, an injector, a substrate holder, a liner, a pedestal, a cap cover, an electrode, and a heater, any of which can further include a protective coating. The processing system includes the system component in a process chamber, a gas injection system for introducing the reactant gas, a chamber protection system for monitoring the status of the system component, and a controller for controlling the processing system in response to the status.
    • 一种在过程中监视系统组件的状态的方法和系统。 该方法包括在过程期间将系统组分暴露于反应气体,其中反应气体能够蚀刻系统组分材料以形成侵蚀产物,并且在该过程期间监测侵蚀产物的释放以确定系统部件的状态 。 可以监测的方法包括室清洁过程,室调节过程,基板蚀刻工艺和基板成膜工艺。 系统组件可以是消耗系统部件,例如处理管,屏蔽件,环,挡板,注射器,衬底保持器,衬垫,基座,帽盖,电极和加热器 其可以进一步包括保护涂层。 处理系统包括处理室中的系统部件,用于引入反应气体的气体注入系统,用于监视系统部件的状态的室保护系统以及响应于状态来控制处理系统的控制器。
    • 5. 发明授权
    • Memory device and method for manufacture
    • 存储器件及其制造方法
    • US06344403B1
    • 2002-02-05
    • US09595735
    • 2000-06-16
    • Sucharita MadhukarRamachandran MuralidharDavid L. O'MearaKristen C. SmithBich-Yen Nguyen
    • Sucharita MadhukarRamachandran MuralidharDavid L. O'MearaKristen C. SmithBich-Yen Nguyen
    • H01L2120
    • H01L21/28273B82Y10/00H01L21/02381H01L21/02532H01L21/0259H01L21/0262H01L21/3105H01L21/3144H01L21/3145H01L29/42332H01L29/66825
    • A semiconductor memory device with a floating gate that includes a plurality of nanoclusters (21) and techniques useful in the manufacturing of such a device are presented. The device is formed by first providing a semiconductor substrate (12) upon which a tunnel dielectric layer (14) is formed. A plurality of nanoclusters (19) is then grown on the tunnel dielectric layer (14). The growth of the nanoclusters (19) may be accomplished using low pressure chemical vapor deposition (LPCVD) or ultra high vacuum chemical vapor deposition (UHCVD) processes. Such growth may be facilitated by formation of a nitrogen-containing layer (502) overlying the tunnel dielectric layer (14). After growth of the nanoclusters (21), a control dielectric layer (20) is formed over the nanoclusters (21). In order to prevent oxidation of the formed nanoclusters (21), the nanoclusters (21) may be encapsulated using various techniques prior to formation of the control dielectric layer (20). A gate electrode (24) is then formed over the control dielectric (20), and portions of the control dielectric, the plurality of nanoclusters, and the gate dielectric that do not underlie the gate electrode are selectively removed. After formation of spacers (35), source and drain regions (32, 34) are then formed by implantation in the semiconductor layer (12) such that a channel region is formed between the source and drain regions (32, 34) underlying the gate electrode (24).
    • 提出了一种具有浮动栅极的半导体存储器件,其包括多个纳米团簇(21)和用于制造这种器件的技术。 该器件通过首先提供其上形成有隧道介电层(14)的半导体衬底(12)形成。 然后在隧道介电层(14)上生长多个纳米团簇(19)。 纳米团簇(19)的生长可以使用低压化学气相沉积(LPCVD)或超高真空化学气相沉积(UHCVD)工艺来实现。 可以通过形成覆盖在隧道介电层(14)上的含氮层(502)来促进这种生长。 在纳米团簇(21)生长之后,在纳米团簇(21)上形成控制电介质层(20)。 为了防止形成的纳米团簇(21)的氧化,可以在形成控制电介质层(20)之前使用各种技术将纳米团簇(21)进行封装。 然后在控制电介质(20)上形成栅极(24),并且选择性地去除不在栅电极下面的控制电介质,多个纳米团簇和栅极电介质的部分。 在形成间隔物(35)之后,然后通过注入在半导体层(12)中形成源极和漏极区域(32,34),使得沟道区域形成在栅极下面的源极和漏极区域(32,34)之间 电极(24)。
    • 6. 发明申请
    • MULTI-LAYER PATTERN FOR ALTERNATE ALD PROCESSES
    • 用于替代ALD过程的多层模式
    • US20130084688A1
    • 2013-04-04
    • US13250937
    • 2011-09-30
    • David L. O'MearaAelan Mosden
    • David L. O'MearaAelan Mosden
    • H01L21/20
    • H01L21/0337H01L21/0338
    • A method of patterning a substrate. A sacrificial film is formed over a substrate and a pattern created therein. A first spacer layer is conformally deposited over the patterned sacrificial film and at least one horizontal portion of the first spacer layer is removed while vertical portions of the first spacer layer remain. A second spacer layer is conformally deposited over the patterned sacrificial film and the remaining portions of the first spacer layer. At least one horizontal portion of the second spacer layer is removed while vertical portions of the second spacer layer remain. Conformal deposition of the first and second spacer layers is optionally repeated one or more times. Conformal deposition of the first layer is optionally repeated. Then, one of the first or second spacer layers is removed while substantially leaving the vertical portions of the remaining one of the first or second spacer layers.
    • 图案化衬底的方法。 在衬底上形成牺牲膜,并在其中形成图案。 第一间隔层被共形沉积在图案化的牺牲膜上,并且除去第一间隔层的垂直部分的第一间隔层的至少一个水平部分。 在图案化的牺牲膜和第一间隔层的剩余部分上共形沉积第二间隔层。 除去第二间隔层的至少一个水平部分,同时保留第二间隔层的垂直部分。 第一和第二间隔层的共形沉积可选地重复一次或多次。 任选地重复第一层的共形沉积。 然后,去除第一或第二间隔层中的一个,同时基本上留下第一或第二间隔层中剩余的一个的垂直部分。
    • 8. 发明授权
    • Multilayer sidewall spacer for seam protection of a patterned structure
    • 用于图案结构的接缝保护的多层侧壁间隔件
    • US08673725B2
    • 2014-03-18
    • US12751926
    • 2010-03-31
    • David L. O'MearaAnthony DipAelan MosdenPao-Hwa ChouRichard A Conti
    • David L. O'MearaAnthony DipAelan MosdenPao-Hwa ChouRichard A Conti
    • H01L29/78
    • H01L21/28247H01L29/6656
    • A semiconducting device with a multilayer sidewall spacer and method of forming are described. In one embodiment, the method includes providing a substrate containing a patterned structure on a surface of the substrate and depositing a first spacer layer over the patterned structure at a first substrate temperature, where the first spacer layer contains a first material. The method further includes depositing a second spacer layer over the patterned substrate at a second substrate temperature that is different from the first substrate temperature, where the first and second materials contain the same chemical elements, and the depositing steps are performed in any order. The first and second spacer layers are then etched to form the multilayer sidewall spacer on the patterned structure.
    • 描述了具有多层侧壁间隔件和形成方法的半导体器件。 在一个实施例中,该方法包括在衬底的表面上提供含有图案化结构的衬底,并且在第一衬底温度下在第一衬底温度下沉积在图案化结构上的第一间隔层,其中第一间隔层包含第一材料。 该方法还包括在不同于第一衬底温度的第二衬底温度下在图案化衬底上沉积第二间隔层,其中第一和第二材料含有相同的化学元素,并且沉积步骤以任何顺序进行。 然后蚀刻第一和第二间隔层以在图案化结构上形成多层侧壁间隔物。
    • 9. 发明授权
    • Memory device that includes passivated nanoclusters and method for manufacture
    • 包含钝化纳米簇的记忆体装置及其制造方法
    • US06297095B1
    • 2001-10-02
    • US09596399
    • 2000-06-16
    • Ramachandran MuralidharChitra K. SubramanianSucharita MadhukarBruce E. WhiteMichael A. SaddSufi ZafarDavid L. O'MearaBich-Yen Nguyen
    • Ramachandran MuralidharChitra K. SubramanianSucharita MadhukarBruce E. WhiteMichael A. SaddSufi ZafarDavid L. O'MearaBich-Yen Nguyen
    • H01L21336
    • H01L21/28282B82Y10/00H01L21/28273H01L29/66439H01L29/7888
    • A semiconductor memory device with a floating gate that includes a plurality of nanoclusters (21) and techniques useful in the manufacturing of such a device are presented. The device is formed by first providing a semiconductor substrate (12) upon which a tunnel dielectric layer (14) is formed. A plurality of nanoclusters (19) is then grown on the tunnel dielectric layer (14). After growth of the nanoclusters (21), a control dielectric layer (20) is formed over the nanoclusters (21). In order to prevent oxidation of the formed nanoclusters (21), the nanoclusters (21) may be encapsulated using various techniques prior to formation of the control dielectric layer (20). A gate electrode (24) is then formed over the control dielectric (20), and portions of the control dielectric, the plurality of nanoclusters, and the gate dielectric that do not underlie the gate electrode are selectively removed. After formation of spacers (35), source and drain regions (32, 34) are then formed by implantation in the semiconductor layer (12) such that a channel region is formed between the source and drain regions (32, 34) underlying the gate electrode (24).
    • 提出了一种具有浮动栅极的半导体存储器件,其包括多个纳米团簇(21)和用于制造这种器件的技术。 该器件通过首先提供其上形成有隧道介电层(14)的半导体衬底(12)形成。 然后在隧道介电层(14)上生长多个纳米团簇(19)。 在纳米团簇(21)生长之后,在纳米团簇(21)上形成控制电介质层(20)。 为了防止形成的纳米团簇(21)的氧化,可以在形成控制电介质层(20)之前使用各种技术将纳米团簇(21)进行封装。 然后在控制电介质(20)上形成栅极(24),并且选择性地去除不在栅电极下面的控制电介质,多个纳米团簇和栅极电介质的部分。 在形成间隔物(35)之后,然后通过注入在半导体层(12)中形成源极和漏极区域(32,34),使得沟道区域形成在栅极下面的源极和漏极区域(32,34)之间 电极(24)。