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    • 1. 发明申请
    • FIELD EFFECT TRANSISTOR HAVING INCREASED CARRIER MOBILITY
    • 具有增加载波移动性的场效应晶体管
    • WO2005020323A2
    • 2005-03-03
    • PCT/US2004/025565
    • 2004-08-05
    • ADVANCED MICRO DEVICES, INC.ANG, Boon-YongXIANG, QiGOO, Jung-Suk
    • XIANG, QiGOO, Jung-Suk
    • H01L27/00
    • H01L29/4983H01L29/02H01L29/4925H01L29/513H01L29/78H01L29/7845Y10S438/938
    • According to one exemplary embodiment, a FET which is situated over a substrate (104), comprises a channel (112) situated in the substrate (104). The FET further comprises a first gate dielectric (116) situated over the channel (112), where the first gate dielectric (116) has a first coefficient of thermal expansion. The FET further comprises a first gate electrode (114) situated over the first gate dielectric (116), where the first gate electrode (114) has a second coefficient of thermal expansion, and where the second coefficient of thermal expansion is different than the first coefficient of thermal expansion so as to cause an increase in carrier mobility in the FET. The second coefficient of thermal expansion may be greater that the first coefficient of thermal expansion, for example. The increase in carrier mobility may be caused by, for example, a tensile strain created in the channel (112).
    • 根据一个示例性实施例,位于衬底(104)上方的FET包括位于衬底(104)中的通道(112)。 FET还包括位于通道(112)上方的第一栅极电介质(116),其中第一栅极电介质(116)具有第一热膨胀系数。 FET还包括位于第一栅极电介质(116)上方的第一栅电极(114),其中第一栅电极(114)具有第二热膨胀系数,并且其中第二热膨胀系数不同于第一栅电极 热膨胀系数,从而导致FET中载流子迁移率的增加。 例如,第二热膨胀系数可以大于第一热膨胀系数。 载流子迁移率的增加可以由例如在通道(112)中产生的拉伸应变引起。
    • 7. 发明申请
    • LOW-TEMPERATURE POST-DOPANT ACTIVATION PROCESS
    • 低温后激活过程
    • WO2003036701A1
    • 2003-05-01
    • PCT/US2002/032555
    • 2002-10-11
    • ADVANCED MICRO DEVICES, INC.YU, BinOGLE, Robert, B.PATON, Eric, N.TABERY, Cyrus, E.XIANG, Qi
    • YU, BinOGLE, Robert, B.PATON, Eric, N.TABERY, Cyrus, E.XIANG, Qi
    • H01L21/268
    • H01L29/665H01L21/268
    • A method of manufacturing a MOSFET semiconductor device comprises forming a gate electrode (24) over a substrate (10) and a gate oxide (16) between the gate electrode (24) and the substrate (10); forming source/drain extensions (30, 32) in the substrate (10); forming first and second sidewall spacers (36, 38); implanting dopants (44) within the substrate (10) to form source/drain regions (40, 42) in the substrate (10) adjacent to the sidewalls spacers (36, 38); laser thermal annealing to activate the source/drain regions (40, 42); depositing a layer of nickel (46) over the source/drain regions (40, 42); and annealing to form a nickel silicide layer (46) disposed on the source/drain regions (40, 42). The source/drain extensions (30, 32) and sidewall spacers (36, 38) are adjacent to the gate electrode (24). The source/drain extensions (30, 32) can have a depth of about 5 to 30 nanometers, and the source/drain regions (40, 42) can have a depth of about 40 to 100 nanometers. The annealing is at temperatures from about 350 to 500 °C.
    • 一种制造MOSFET半导体器件的方法包括在栅电极(24)和衬底(10)之间的衬底(10)和栅氧化层(16)上形成栅电极(24)。 在所述衬底(10)中形成源极/漏极延伸部(30,32); 形成第一和第二侧壁间隔件(36,38); 在所述衬底(10)内注入掺杂剂(44)以在所述衬底(10)中邻近所述侧壁间隔物(36,38)形成源/漏区(40,42); 激光热退火以激活源/漏区(40,42); 在源/漏区(40,42)上沉积一层镍(46); 和退火以形成设置在源/漏区(40,42)上的硅化镍层(46)。 源极/漏极延伸部(30,32)和侧壁间隔物(36,38)与栅电极(24)相邻。 源极/漏极扩展部(30,32)可以具有约5至30纳米的深度,并且源极/漏极区域(40,42)可以具有约40至100纳米的深度。 退火温度在约350-500℃