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    • 3. 发明授权
    • High tensile nitride layer
    • 高拉伸氮化物层
    • US5633202A
    • 1997-05-27
    • US660734
    • 1996-06-06
    • Lawrence N. BrighamYung-Huei LeeRobert S. ChauRaymond E. Cotner
    • Lawrence N. BrighamYung-Huei LeeRobert S. ChauRaymond E. Cotner
    • H01L21/318H01L21/336H01L21/44H01L21/02
    • H01L29/6659H01L21/3185H01L29/665H01L29/7843Y10S438/954
    • An insulating layer in a semiconductor device and a process for forming the insulating layer is described. The insulating layer comprises of a nitride layer over the substrate having a residual stress of between -8.times.10.sup.9 dynes/cm.sup.-2 and -3.times.10.sup.10 dynes/cm.sup.-2. The insulating layer can further comprise a doped oxide layer under the nitride layer and can further comprise an interlevel dielectric layer over the nitride layer. Moreover, the nitride layer can be formed by bringing the temperature in a chemical vapor deposition reactor to below 550 degrees Celsius, placing the substrate into the reactor at the temperature, and forming the nitride layer on the substrate. Alternatively, the nitride layer can be formed by pushing the substrate into a chemical vapor deposition reactor at a speed greater than 300 millimeters per minute, and forming the nitride layer on the substrate.
    • 描述半导体器件中的绝缘层和用于形成绝缘层的工艺。 绝缘层包括在衬底上的氮化物层,其残余应力在-8x109达因/厘米-2和-3×10 10达因/厘米-2之间。 绝缘层还可以包括在氮化物层下方的掺杂氧化物层,并且还可以包括在氮化物层上的层间电介质层。 此外,可以通过使化学气相沉积反应器中的温度低于550摄氏度,将衬底置于反应器中并在衬底上形成氮化物层来形成氮化物层。 或者,可以通过以大于300毫米/分钟的速度将衬底推入化学气相沉积反应器中并在衬底上形成氮化物层来形成氮化物层。
    • 6. 发明授权
    • Polysilicon polish for patterning improvement
    • 多晶硅抛光剂用于图案改进
    • US5911111A
    • 1999-06-08
    • US944041
    • 1997-09-02
    • Mark T. BohrLawrence N. BrighamPeter K. MoonSeiichi Morimoto
    • Mark T. BohrLawrence N. BrighamPeter K. MoonSeiichi Morimoto
    • H01L21/28H01L21/321H01L21/44
    • H01L21/3212H01L21/28123
    • A polishing process for polysilicon gate patterning improvement using standard patterning techniques in the manufacture of high performance metal oxide semiconductor (MOS) devices. The addition of a short silicon polish step, after deposition and before patterning of a polysilicon layer reduces the non-planarity normally associated with polysilicon. Polysilicon polishing removes the surface roughness in the polysilicon layer caused by the grain structure of polysilicon and the surface roughness due to the replication of the underlying topography of the isolation and substrate regions. The described method for removal of both types of surface roughness leaves the polysilicon layer planarized without increasing the defect level already associated with the manufacture of high performance MOS devices.
    • 在制造高性能金属氧化物半导体(MOS)器件中使用标准图案化技术的多晶硅栅极图案化改进的抛光工艺。 在沉积之后和在多晶硅层的图案化之前添加短硅抛光步骤减少了通常与多晶硅相关的非平面性。 多晶硅抛光消除由多晶硅的晶粒结构引起的多晶硅层中的表面粗糙度以及由于隔离和衬底区域的底部形貌的复制所引起的表面粗糙度。 所描述的用于去除两种类型的表面粗糙度的方法使多晶硅层平坦化,而不增加已经与高性能MOS器件的制造相关联的缺陷水平。