摘要:
A method of forming silicide contacts for semiconductor devices includes subjecting a silicon containing semiconductor wafer to a degas treatment at an initial degas temperature of about 250 to about 400° C., transferring the semiconductor wafer from a degas chamber to a deposition chamber, depositing a nickel containing layer over the wafer following transfer of the wafer from the degas chamber to the deposition chamber, and annealing the semiconductor wafer so as to create silicide regions at portions on the wafer where nickel material is formed over silicon.
摘要:
A method of forming silicide contacts for semiconductor devices includes subjecting a silicon containing semiconductor wafer to a degas treatment at an initial degas temperature of about 250 to about 400° C., transferring the semiconductor wafer from a degas chamber to a deposition chamber, depositing a nickel containing layer over the wafer following transfer of the wafer from the degas chamber to the deposition chamber, and annealing the semiconductor wafer so as to create silicide regions at portions on the wafer where nickel material is formed over silicon.
摘要:
A method of forming silicide contacts for semiconductor devices includes subjecting a silicon containing semiconductor wafer to a degas treatment at a temperature of about 400° C., transferring the semiconductor wafer from a degas chamber to a deposition chamber, depositing a cobalt layer over the wafer at a point in time when the semiconductor wafer has cooled to temperature range of about 275-300° C., depositing a cap layer over the cobalt layer, and annealing the semiconductor wafer so as to create silicide contacts at portions on the wafer where cobalt is formed over silicon.
摘要:
A method of forming silicide contacts for semiconductor devices includes subjecting a silicon containing semiconductor wafer to a degas treatment at a temperature of about 400° C., transferring the semiconductor wafer from a degas chamber to a deposition chamber, depositing a cobalt layer over the wafer at a point in time when the semiconductor wafer has cooled to temperature range of about 275-300° C., depositing a cap layer over the cobalt layer, and annealing the semiconductor wafer so as to create silicide contacts at portions on the wafer where cobalt is formed over silicon.
摘要:
Embodiments of the present invention provide a method of fabricating a contact structure in a layer of dielectric material between a semiconductor device and a back-end-of-line interconnect. The method includes creating at least one contact opening in said layer of dielectric material; forming a first TiN film through a chemical-vapor deposition process, said first TiN film lining said contact opening; and forming a second TiN film through a physical vapor deposition process, said second TiN film lining said first TiN film. A contact structure fabricated according to embodiments of the invention is also provided.
摘要:
Embodiments of the present invention provide a method of fabricating a contact structure in a layer of dielectric material between a semiconductor device and a back-end-of-line interconnect. The method includes creating at least one contact opening in said layer of dielectric material; forming a first TiN film through a chemical-vapor deposition process, said first TiN film lining said contact opening; and forming a second TiN film through a physical vapor deposition process, said second TiN film lining said first TiN film. A contact structure fabricated according to embodiments of the invention is also provided.
摘要:
In a method for use of x-ray diffraction to measure the strain on the top silicon germanium layer of an SOI substrate, the location of the peak diffraction area of an upper silicon layer of the SOI substrate is determined by first determining the peak diffraction area of the upper silicon layer on a reference pad (where the SOI thickness is about 700-900 Angstroms) within a die formed on a semiconductor wafer. The x-ray beam then moves to that location on the pad of interest to be measured and begins the XRD scan on the pad of interest to ultimately determine the strain of the top silicon germanium layer of the pad of interest
摘要:
A compound that includes at least Si, N and C in any combination, such as compounds of formula (R—NH)4-nSiXn wherein R is an alkyl group (which may be the same or different), n is 1, 2 or 3, and X is H or halogen (such as, e.g., bis-tertiary butyl amino silane (BTBAS)), may be mixed with silane or a silane derivative to produce a film. A polysilicon silicon film may be grown by mixing silane (SiH4) or a silane derviative and a compound including Si, N and C, such as BTBAS. Films controllably doped with carbon and/or nitrogen (such as layered films) may be grown by varying the reagents and conditions.
摘要翻译:至少包含任何组合中的Si,N和C的化合物,例如式(R-NH)4-n-SiX n N的化合物,其中R是烷基 (其可以相同或不同),n为1,2或3,X为H或卤素(例如双叔丁基氨基硅烷(BTBAS))可与硅烷或硅烷衍生物混合 制作一部电影。 可以通过混合硅烷(SiH 4 SO 4)或硅烷衍生物和包括Si,N和C的化合物如BTBAS来生长多晶硅硅膜。 可以通过改变试剂和条件来生长可控地掺杂有碳和/或氮的膜(例如层状膜)。
摘要:
An integrated circuit system includes a substrate, a carbon-containing silicon region over the substrate, a non-carbon-containing silicon region over the substrate, and a silicon-carbon region, including the non-carbon-containing silicon region and the carbon-containing silicon region.
摘要:
An integrated circuit includes a bilayer thin film resistor in which the lower layer is a seed layer that controls the crystal structure of the upper layer. The thickness of the lower layer and the thickness of the upper layer may be chosen to form a resistor with a TCR having a design value.