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    • 1. 发明授权
    • Semiconductor structure having heterogenous silicide regions having titanium and molybdenum
    • 具有异质硅化物区域的具有钛和钼的半导体结构
    • US06512296B1
    • 2003-01-28
    • US09636325
    • 2000-08-10
    • Robert J. Gauthier, Jr.Randy W. MannSteven H. Voldman
    • Robert J. Gauthier, Jr.Randy W. MannSteven H. Voldman
    • H01L2348
    • H01L29/4933H01L21/28052H01L21/28518H01L21/28568H01L21/823418H01L21/823443H01L29/456
    • A process for forming heterogeneous silicide structures on a semiconductor substrate (10) includes implanting molybdenum ions into selective areas of the semiconductor substrate (10) to form molybdenum regions (73, 74, 75, 76). Titanium is then deposited over the semiconductor substrate (10). The semiconductor substrate (10) is annealed at a temperature between approximately 600° C. and approximately 700° C. During the annealing process, the titanium deposited in areas outside the molybdenum regions (73, 74, 75, 76) interacts with silicon on the substrate to form titanium silicide in a high resistivity C49 crystal phase. The titanium deposited in areas within the molybdenum regions (73, 74, 75, 76) interacts with silicon to form titanium silicide in a low resistivity C54 crystal phase because the presence of molybdenum ions in silicon lowers the energy barrier for crystal phase transformation between the C49 phase and the C54 phase.
    • 在半导体衬底(10)上形成异质硅化物结构的方法包括将钼离子注入到半导体衬底(10)的选择区域中以形成钼区(73,74,75,76)。 然后将钛沉积在半导体衬底(10)上。 半导体衬底(10)在大约600℃和大约700℃之间的温度下退火。在退火过程中,沉积在钼区域(73,74,75,76)之外的区域中的钛与硅 该基板在高电阻率C49晶相中形成硅化钛。 在钼区域(73,74,75,76)中的区域中沉积的钛与硅相互作用以在低电阻率C54晶体相中形成硅化钛,因为硅中的钼离子的存在降低了能量势垒以进行晶体相变 C49相和C54相。
    • 4. 发明授权
    • Semiconductor structure having heterogeneous silicide regions and method for forming same
    • 具有异质硅化物区域的半导体结构及其形成方法
    • US06187617B1
    • 2001-02-13
    • US09363558
    • 1999-07-29
    • Robert J. Gauthier, Jr.Randy W. MannSteven H. Voldman
    • Robert J. Gauthier, Jr.Randy W. MannSteven H. Voldman
    • H01L21336
    • H01L29/4933H01L21/28052H01L21/28518H01L21/28568H01L21/823418H01L21/823443H01L29/456
    • A process for forming heterogeneous silicide structures on a semiconductor substrate (10) includes implanting molybdenum ions into selective areas of the semiconductor substrate (10) to form molybdenum regions (73, 74, 75, 76). Titanium is then deposited over the semiconductor substrate (10). The semiconductor substrate (10) is annealed at a temperature between approximately 600° C. and approximately 700° C. During the annealing process, the titanium deposited in areas outside the molybdenum regions (73, 74, 75, 76) interacts with silicon on the substrate to form titanium silicide in a high resistivity C49 crystal phase. The titanium deposited in areas within the molybdenum regions (73, 74, 75, 76) interacts with silicon to form titanium silicide in a low resistivity C54 crystal phase because the presence of molybdenum ions in silicon lowers the energy barrier for crystal phase transformation between the C49 phase and the C54 phase.
    • 在半导体衬底(10)上形成异质硅化物结构的方法包括将钼离子注入到半导体衬底(10)的选择区域中以形成钼区(73,74,75,76)。 然后将钛沉积在半导体衬底(10)上。 半导体衬底(10)在大约600℃和大约700℃之间的温度下退火。在退火过程中,沉积在钼区域(73,74,75,76)之外的区域中的钛与硅 该基板在高电阻率C49晶相中形成硅化钛。 在钼区域(73,74,75,76)中的区域中沉积的钛与硅相互作用以在低电阻率C54晶体相中形成硅化钛,因为硅中的钼离子的存在降低了能量势垒以进行晶体相变 C49相和C54相。
    • 10. 发明授权
    • Finfet SRAM cell using low mobility plane for cell stability and method for forming
    • Finfet SRAM单元使用低迁移率平面进行电池稳定性和形成方法
    • US06967351B2
    • 2005-11-22
    • US10011351
    • 2001-12-04
    • David M. FriedRandy W. MannK. Paul MullerEdward J. Nowak
    • David M. FriedRandy W. MannK. Paul MullerEdward J. Nowak
    • H01L21/8244H01L21/84H01L27/12H01L29/04
    • H01L27/11H01L21/84H01L27/1203H01L29/785Y10S257/903
    • The present invention provides a device design and method for forming the same that results in Fin Field Effect Transistors having different gains without negatively impacting device density. The present invention forms relatively low gain FinFET transistors in a low carrier mobility plane and relatively high gain FinFET transistors in a high carrier mobility plane. Thus formed, the FinFETs formed in the high mobility plane have a relatively higher gain than the FinFETs formed in the low mobility plane. The embodiments are of particular application to the design and fabrication of a Static Random Access Memory (SRAM) cell. In this application, the bodies of the n-type FinFETs used as transfer devices are formed along the {110} plane. The bodies of the n-type FinFETs and p-type FinFETs used as the storage latch are formed along the {100}. Thus formed, the transfer devices will have a gain approximately half that of the n-type storage latch devices, facilitating proper SRAM operation.
    • 本发明提供了一种用于形成它的器件设计和方法,其导致Fin场效应晶体管具有不同的增益而不会不利地影响器件密度。 本发明在低载流子迁移率平面中形成相对较低的增益FinFET晶体管,并在高载流子迁移率平面内形成相对较高的增益FinFET晶体管。 如此形成的,在高迁移率平面中形成的FinFET具有比在低迁移率平面中形成的FinFET更高的增益。 这些实施例特别适用于静态随机存取存储器(SRAM)单元的设计和制造。 在这种应用中,用作转移装置的n型FinFET的主体沿{110}平面形成。 用作存储锁存器的n型FinFET和p型FinFET的主体沿{100}形成。 如此形成的,传送装置的增益大约是n型存储锁存装置的增益的一半,有利于适当的SRAM操作。