METHOD FOR REMOVING NATIVE OXIDE AND RESIDUE FROM A III-V GROUP CONTAINING SURFACE
    22.
    发明申请
    METHOD FOR REMOVING NATIVE OXIDE AND RESIDUE FROM A III-V GROUP CONTAINING SURFACE 有权
    用于从含有III-V族的表面除去原有氧化物和残留物的方法

    公开(公告)号:US20160141175A1

    公开(公告)日:2016-05-19

    申请号:US14540104

    申请日:2014-11-13

    Inventor: Chun YAN Xinyu BAO

    Abstract: Native oxides and residue are removed from surfaces of a substrate by performing a multiple-stage native oxide cleaning process. In one example, the method for removing native oxides from a substrate includes supplying a first gas mixture including an inert gas onto a surface of a material layer disposed on a substrate into a first processing chamber, wherein the material layer is a III-V group containing layer for a first period of time, supplying a second gas mixture including an inert gas and a hydrogen containing gas onto the surface of the material layer for a second period of time, and supplying a third gas mixture including a hydrogen containing gas to the surface of the material layer while maintaining the substrate at a temperature less than 550 degrees Celsius.

    Abstract translation: 通过进行多级自然氧化物清洗工艺,从基底的表面除去天然氧化物和残余物。 在一个实例中,用于从衬底去除天然氧化物的方法包括将包含惰性气体的第一气体混合物供应到设置在衬底上的材料层的表面上的第一处理室中,其中材料层为III-V族 将含有惰性气体和含氢气体的第二气体混合物供给到所述材料层的表面上第二时间段,并将含有含氢气体的第三气体混合物供给到所述第二气体混合物 同时将基板保持在低于550摄氏度的温度。

    METHOD OF FORMING III-V CHANNEL
    23.
    发明申请
    METHOD OF FORMING III-V CHANNEL 有权
    形成III-V通道的方法

    公开(公告)号:US20150372097A1

    公开(公告)日:2015-12-24

    申请号:US14313086

    申请日:2014-06-24

    Abstract: Embodiments of the present disclosure relate to semiconductor devices such as transistors used for amplifying or switching electronic signals. In one embodiment, a first trench is formed in a dielectric layer formed on a substrate to expose a surface of the substrate, a multi-stack layer structure is formed within the first trench, and a third semiconductor compound layer is formed on the second semiconductor compound layer, wherein the second semiconductor compound layer has an etching resistance against an etchant lower than that of the first and third semiconductor compound layers, a second trench is formed in the dielectric layer to partially expose at least the second semiconductor compound layer and the third semiconductor compound layer, and the second semiconductor compound layer is selectively removed so that the first semiconductor compound layer is isolated from the third semiconductor compound layer by an air gap.

    Abstract translation: 本公开的实施例涉及半导体器件,例如用于放大或切换电子信号的晶体管。 在一个实施例中,在形成在基板上的电介质层中形成第一沟槽以暴露衬底的表面,在第一沟槽内形成多层叠层结构,在第二半导体上形成第三半导体化合物层 化合物层,其中所述第二半导体化合物层对于蚀刻剂具有比所述第一和第三半导体化合物层低的蚀刻剂的耐蚀刻性,在所述电介质层中形成第二沟槽,以至少部分地暴露所述第二半导体化合物层和所述第三半导体化合物层 半导体化合物层,并且第二半导体化合物层被选择性地去除,使得第一半导体化合物层通过气隙与第三半导体化合物层隔离。

    INTEGRATED SYSTEM FOR SEMICONDUCTOR PROCESS
    24.
    发明申请

    公开(公告)号:US20200035525A1

    公开(公告)日:2020-01-30

    申请号:US16591354

    申请日:2019-10-02

    Abstract: Implementations of the present disclosure generally relate to methods and apparatuses for epitaxial deposition on substrate surfaces. More particularly, implementations of the present disclosure generally relate to an integrated system for processing N-type metal-oxide semiconductor (NMOS) devices. In one implementation, a cluster tool for processing a substrate is provided. The cluster tool includes a pre-clean chamber, an etch chamber, one or more pass through chambers, one or more outgassing chambers, a first transfer chamber, a second transfer chamber, and one or more process chambers. The pre-clean chamber and the etch chamber are coupled to a first transfer chamber. The one or more pass through chambers are coupled to and disposed between the first transfer chamber and the second transfer chamber. The one or more outgassing chambers are coupled to the second transfer chamber. The one or more process chambers are coupled to the second transfer chamber.

    INTEGRATED SYSTEM AND METHOD FOR SOURCE/DRAIN ENGINEERING

    公开(公告)号:US20180082836A1

    公开(公告)日:2018-03-22

    申请号:US15417496

    申请日:2017-01-27

    CPC classification number: H01L21/02057 H01L29/66636 H01L29/66795

    Abstract: Implementations described herein generally provide a method of processing a substrate. Specifically, the methods described are used for cleaning and etching source/drain regions on a silicon substrate in preparation for precise Group IV source/drain growth in semiconductor devices. Benefits of this disclosure include precise fin size control in devices, such as 10 nm FinFET devices, and increased overall device yield. The method of integrated clean and recess includes establishing a low pressure processing environment in the processing volume, and maintaining the low pressure processing environment while flowing a first gas over a substrate in a processing volume, depositing a salt on the substrate, heating the processing volume to greater than 90° C., purging the processing volume with a second inert gas, and recessing a source/drain region disposed on the substrate.

    STRUCTURE FOR RELAXED SIGE BUFFERS INCLUDING METHOD AND APPARATUS FOR FORMING

    公开(公告)号:US20170335444A1

    公开(公告)日:2017-11-23

    申请号:US15668026

    申请日:2017-08-03

    Abstract: Embodiments of the present disclosures provide methods and apparatus for manufacturing semiconductor devices such as transistors used for amplifying or switching electronic signals. Specifically, embodiments of the present disclosure generally relate to a semiconductor device having a film stack including an interlayer of semiconductor material and a buffer layer of semiconductor material underneath an active device layer. In various embodiments, the interlayer may include group III-V semiconductor materials formed between a first surface of a silicon-based substrate and the buffer layer. In certain embodiments the buffer layer may comprise group IV semiconductor materials. The interlayer may have a lattice constant designed to mitigate lattice mismatch between the group IV buffer layer and the silicon-based substrate. The buffer layer may provide improved integration of the active device layer to improve the performance of the resulting device.

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