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    • 83. 发明申请
    • シリコン化合物の形成方法
    • 生产硅化合物的方法
    • WO2006123673A1
    • 2006-11-23
    • PCT/JP2006/309794
    • 2006-05-17
    • 三菱重工業株式会社大庭 義行坂本 仁志
    • 大庭 義行坂本 仁志
    • H01L21/285C23C16/42C23C16/44H01L21/28H01L21/336H01L29/78H01L31/04
    • C23C16/4488C01B33/06C23C16/325C23C16/42H01L21/2807H01L21/28097H01L21/28518H01L31/032
    •  チャンバ1の内部に配設するとともにSiとの化合物を形成し得る元素を含む材料で形成した被エッチング部材11を、相対的に高温に保持した状態でハロゲンガスのラジカルを作用させることにより前記材料とハロゲンとの化合物である前駆体24のガスを形成する一方、Si界面を露出させて前記チャンバ1内に収納した基板3の温度を相対的に低温に保持することにより前記前駆体24を前記基板3のSi界面に吸着させ、その後Si界面に吸着させた前記前躯体24に前記ハロゲンガスのラジカルを作用させてこの前躯体24を還元することにより前記材料とSiとの化合物を形成することで、工程数を可及的に低減し得るとともに低温環境で所望の化合物を形成し得るシリコン化合物の形成方法。
    • 本发明提供了可以尽可能减少步骤数的硅化合物的制造方法,并且可以在低温环境下形成所需化合物。 制造方法包括使卤素气体的一部分以保持在相对较高温度的状态作用于设置在室(1)内的蚀刻构件(11),并且由含有元素的材料形成 能够与Si形成化合物,以产生作为上述材料和卤素之间的化合物的前体(24)的气体,同时暴露出Si界面以保持容纳在内部的基板(3)的温度 室(1)在相对低的温度下吸附前体(24)到衬底(3)的Si界面上,然后使卤素气体的自由基作用于吸附在Si界面上的前体(24)上 减少前体(24),从而在上述材料和Si之间产生化合物。
    • 86. 发明申请
    • SELF-FORMING METAL SILICIDE GATE FOR CMOS DEVICES
    • 用于CMOS器件的自成型金属硅化物栅
    • WO2006076373A1
    • 2006-07-20
    • PCT/US2006/000838
    • 2006-01-10
    • INTERNATIONAL BUSINESS MACHINES CORPORATIONLUO, ZhijiongFANG, SunfeiZHU, Huilong
    • LUO, ZhijiongFANG, SunfeiZHU, Huilong
    • H01L21/336H01L29/76
    • H01L29/4975H01L21/28097H01L21/823835H01L29/665H01L29/7833
    • A process for forming a metal silicide gate in an FET device, where the suicide is self-forming (that is, formed without the need for a separate metal/silicon reaction step), and no CMP or etchback of the silicon material is required. A first layer of silicon material (3) (polysilicon or amorphous silicon) is formed overlying the gate dielectric (2); a layer of metal (4) is then formed on the first layer (3), and a second layer of silicon (5) on the metal layer (4). A high-temperature (greater than 700 0C) processing step, such as source/drain activation anneal, is subsequently performed; this step is effective to form a silicide layer (30) above the gate dielectric (2) by reaction of the metal with silicon in the first layer. A second high-temperature processing step (such as source/drain silicidation) may be performed which is effective to form a second silicide layer (50) from silicon in the second layer (5). The thicknesses of the layers are such that in the high-temperature processing, substantially all the first layer and at least a portion of the second layer are replaced by silicide material. Accordingly, a fully suicided gate structure may be produced.
    • 在FET器件中形成金属硅化物栅极的方法,其中硅化物自成型(即,不需要单独的金属/硅反应步骤形成),并且不需要CMP材料的CMP或回蚀。 形成覆盖栅极电介质(2)的第一层硅材料(3)(多晶硅或非晶硅); 然后在第一层(3)上形成金属层(4),在金属层(4)上形成第二层硅(5)。 随后进行高温(大于700℃)处理步骤,例如源极/漏极激活退火; 该步骤通过金属与第一层中的硅的反应在栅电介质(2)上形成硅化物层(30)是有效的。 可以执行第二高温处理步骤(例如源极/漏极硅化),其有效地从第二层(5)中的硅形成第二硅化物层(50)。 层的厚度使得在高温处理中,基本上所有的第一层和第二层的至少一部分被硅化物材料代替。 因此,可以产生完全自制的栅极结构。
    • 87. 发明申请
    • METHOD OF MAKING FULLY SILICIDED GATE ELECTRODE
    • 制备完全硅化物电极的方法
    • WO2006051090A1
    • 2006-05-18
    • PCT/EP2005/055873
    • 2005-11-10
    • INFINEON TECHNOLOGIES AGKIM, SunOoKLEE, Veit
    • KIM, SunOoKLEE, Veit
    • H01L21/336H01L21/28H01L29/78
    • H01L29/6653H01L21/28097H01L29/66545H01L29/6656H01L29/7833
    • A method of making a semiconductor device for an integrated circuit chip. An interim gate electrode stack formed includes a top silicon portion patterned from a second silicon layer, a sandwiched oxide portion patterned from an etch stop oxide layer, and a bottom silicon portion patterned from a first silicon layer formed on a gate dielectric layer over a substrate. Etching the second silicon layer is stopped at the etch stop oxide layer. A spacer structure is formed about the interim gate electrode stack, and then the top silicon portion and the sandwiched oxide portion are removed. The spacer structure height may be reduced. A metal layer is formed over the bottom silicon portion of the interim gate electrode stack and over source and drain regions of the substrate, all of which are suicided at the same time to form a folly suicided (FUSI) gate electrode and suicided source and drain regions.
    • 制造用于集成电路芯片的半导体器件的方法。 形成的中间栅极电极堆叠包括从第二硅层图案化的顶部硅部分,从蚀刻停止氧化物层图案化的夹层氧化物部分和从在衬底上形成的栅极电介质层上形成的第一硅层图案化的底部硅部分 。 蚀刻第二硅层在蚀刻停止氧化物层处停止。 围绕临时栅电极堆叠形成间隔结构,然后去除顶部硅部分和夹层氧化物部分。 可以减小间隔件结构的高度。 在中间栅极电极堆叠的底部硅部分上方形成金属层,并在衬底的源极和漏极区域上形成一个金属层,所有这些都同时被硅化,以形成愚蠢的(FUSI)栅电极和自制的源极和漏极 区域。
    • 89. 发明申请
    • DUAL-METAL CMOS TRANSISTORS WITH TUNABLE GATE ELECTRODE WORK FUNCTION AND METHOD OF MAKING THE SAME
    • 具有可控门电极工作功能的双金属CMOS晶体管及其制造方法
    • WO2005109493A1
    • 2005-11-17
    • PCT/US2005/013240
    • 2005-04-19
    • ADVANCED MICRO DEVICES, INC.PAN, JamesLIN, Ming-Ren
    • PAN, JamesLIN, Ming-Ren
    • H01L21/8238
    • H01L21/823835H01L21/28097H01L21/823842
    • A dual-metal CMOS arrangement and method of making the same provides a substrate (10) and a plurality of NMOS devices (44) and PMOS devices (46) formed on the substrate (10). Each of the plurality of NMOS devices (44) and PMOS devices (46) have gate electrodes. Each NMOS gate electrode includes a first silicide region (50) on the substrate (10) and a first metal region (48) on the first silicide region (50). The first silicide region (50) of the NMOS gate electrode consists of a first silicide (50) having a work function that is close to the conduction band of silicon. Each of the PMOS gate electrodes includes a second silicide region (54) on the substrate and a second metal region (52) on the second silicide region (54). The second silicide region (54) of the PMOS gate electrode consists of a second silicide (54) having a work function that is close to the valence band of silicon.
    • 双金属CMOS布置及其制造方法提供了形成在衬底(10)上的衬底(10)和多个NMOS器件(44)和PMOS器件(46)。 多个NMOS器件(44)和PMOS器件(46)中的每一个具有栅电极。 每个NMOS栅极包括在基底(10)上的第一硅化物区(50)和第一硅化物区(50)上的第一金属区(48)。 NMOS栅电极的第一硅化物区域(50)由具有接近硅导带的功函数的第一硅化物(50)组成。 每个PMOS栅电极包括在该衬底上的第二硅化物区域(54)和在第二硅化物区域(54)上的第二金属区域(52)。 PMOS栅电极的第二硅化物区域(54)由具有接近硅的价带的功函数的第二硅化物(54)组成。
    • 90. 发明申请
    • METAL GATE ELECTRODE USING SILICIDATION AND METHOD OF FORMATION THEREOF
    • 使用硅酸的金属门电极及其形成方法
    • WO2003094243A1
    • 2003-11-13
    • PCT/US2003/012958
    • 2003-04-28
    • ADVANCED MICRO DEVICES, INC
    • MASZARA, Witold, P.KRIVOKAPIC, Zoran
    • H01L29/423
    • H01L21/28518H01L21/28097H01L29/4975H01L29/665H01L29/66545H01L29/6659
    • A semiconductor device is fabricated by providing a substrate (32), and providing a dielectric layer (34) on the substrate (32). A polysilicon body (36) is formed on the dielectric layer (34), and a metal layer (60) is provided on the polysilicon body (36). A silicidation process is undertaken to silicidize substantially the entire polysilicon body (36) to form a gate (62) on the dielectric (34). In an alternative process, a cap layer (90) is provided on the polysilicon body (86), which cap layer (90) is removed prior to the silicidation process. In both embodiments, the polysilicon body (36, 86) is doped with a chosen specie prior to the silicidation process, which dopant (39, 89), during the silicidation process, is driven toward the dielectric layer (34, 84) to form a gate portion (60, 150) having a high concentration thereof adjacent the dielectric (34, 84), the type and concentration of this specie being instrumental in determining the work function of the formed gate (62, 122).
    • 通过提供衬底(32)和在衬底(32)上提供电介质层(34)来制造半导体器件。 在电介质层(34)上形成多晶硅体(36),在多晶硅体(36)上设置金属层(60)。 进行硅化处理以基本上硅化整个多晶硅体(36),以在电介质(34)上形成栅极(62)。 在替代方法中,在多晶硅本体(86)上提供覆盖层(90),在硅化过程之前,覆盖层(90)被去除。 在两个实施例中,多晶硅体(36,86)在硅化工艺之前掺杂有选择的特性,在硅化过程期间,掺杂剂(39,89)被驱向电介质层(34,84)以形成 具有与电介质(34,84)相邻的其高浓度的栅极部分(60,150),该物质的类型和浓度有助于确定所形成的栅极(62,122)的功函数。