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    • 3. 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℃
    • 7. 发明申请
    • METHOD USING SILICIDE CONTACTS FOR SEMICONDUCTOR PROCESSING
    • 使用硅化物接触进行半导体加工的方法
    • WO2004001826A1
    • 2003-12-31
    • PCT/US2003/017599
    • 2003-06-04
    • ADVANCED MICRO DEVICES, INC.
    • BESSER, Paul, R.CHAN, Simon, S.BROWN, David, E.PATON, Eric, N.
    • H01L21/285
    • H01L21/28518
    • A method for forming silicide contacts includes forming a layer on silicon-containing active device regions such as source, drain, and gate regions. The layer contains a metal (such as nickel) that is capable of forming one or more metal silicides and a material (such as Ge, Ti, Re, Ta, N, V, Jr, Cr, Zr if the metal is nickel) that is soluble in a first metal silicide (such as NiSi) but not soluble in a second metal silicide (such as NiSi 2 ), or is more soluble in the first metal silicide than in the second metal silicide. The layer may be formed by vapor deposition methods such as physical vapor deposition, chemical vapor deposition, evaporation, laser ablation, or other deposition method. A method for forming silicide contacts includes forming a metal layer, then implanting the metal layer and/or underlying silicon layer with a material such as that described above. The material may be implanted in the silicon layer prior to formation of the metal layer. Contacts formed include a first metal silicide and a material that is more soluble in a first metal silicide than in a second metal silicide. The contacts may be part of a semiconductor device including a substrate, active region containing silicon, and silicide contacts disposed over the active region and capable of electrically coupling the active region to other regions such as metallization lines.
    • 用于形成硅化物接触的方法包括在诸如源极,漏极和栅极区域的含硅有源器件区域上形成层。 该层含有能够形成一种或多种金属硅化物的金属(例如镍)和材料(例如,如果金属为镍,则为Ge,Ti,Re,Ta,N,V,Jr,Cr,Zr) 可溶于第一金属硅化物(例如NiSi),但不溶于第二金属硅化物(例如NiSi 2),或者比在第二金属硅化物中更溶于第一金属硅化物。 该层可以通过诸如物理气相沉积,化学气相沉积,蒸发,激光烧蚀或其它沉积方法之类的气相沉积方法形成。 形成硅化物接触的方法包括形成金属层,然后用如上所述的材料注入金属层和/或下层硅层。 在形成金属层之前,材料可以被植入到硅层中。 形成的触点包括第一金属硅化物和比在第二金属硅化物中更溶于第一金属硅化物的材料。 触点可以是半导体器件的一部分,其包括衬底,含硅的有源区和设置在有源区上的硅化物触点,并且能够将有源区电耦合到诸如金属化线的其它区域。
    • 8. 发明申请
    • SILICIDE STOP LAYER IN A DAMASCENE GATE SEMICONDUCTOR STRUCTURE
    • 大气阻挡层半导体结构中的硅化物停留层
    • WO2002065524A1
    • 2002-08-22
    • PCT/US2001/043896
    • 2001-11-13
    • ADVANCED MICRO DEVICES, INC.
    • PATON, Eric, N.BESSER, Paul, R.BUYNOSKI, Matthew, S.XIANG, QiKING, Paul, L.FOSTER, John, Clayton
    • H01L21/28
    • H01L29/66583H01L21/28052H01L29/4941
    • A damascene gate semiconductor structure that is formed utilizing a silicide stop layer (34). Initially, a gate opening (28) is provided in an insulating layer (26) on a substrate (24). A first dielectric layer (30) is deposited in the gate opening (28) over the substrate (24). A silicide stop layer (34) is then deposited in the gate opening (28) over the first silicon layer (32). A second silicon layer (36) is then deposited in the gate opening (28) over the silicide stop layer (34). A metal or alloy layer (38) is then deposited over the insulating layer (26) and the second silicon layer (38). The damascene semiconductor structure is then temperature treated to react the metal or alloy layer (38) with the second silicon layer (36) to form a silicide layer (40). Any unreacted metal or alloy is then removed from the metal or alloy layer (38).
    • 利用硅化物停止层(34)形成的镶嵌栅极半导体结构。 首先,在基板(24)上的绝缘层(26)中设置栅极开口(28)。 第一电介质层(30)沉积在衬底(24)上的栅极开口(28)中。 然后将硅化物阻挡层(34)沉积在第一硅层(32)上的栅极开口(28)中。 然后在栅极开口(28)上沉积硅化物阻挡层(34)上的第二硅层(36)。 然后在绝缘层(26)和第二硅层(38)上沉积金属或合金层(38)。 然后对镶嵌半导体结构进行温度处理以使金属或合金层(38)与第二硅层(36)反应以形成硅化物层(40)。 然后从金属或合金层(38)中除去任何未反应的金属或合金。