摘要:
Ultra low K nanoporous dielectric films may be formed by chemical vapor deposition of silicon-containing components and large non-silicon containing porogens having labile groups. In accordance with one embodiment of the present invention, a low K nanoporous film may be formed by the oxidative reaction between trimethylsilane (the silicon-containing component) and alpha-terpinene (the non-silicon containing component). In accordance with certain embodiments of the present invention, the oxidant can comprise other than molecular oxygen, for example water vapor introduced in-situ or remotely, and then exposed to RF energy to generate reactive ionic species.
摘要:
A method for depositing a low dielectric constant film includes providing a gas mixture including one or more cyclic organosiloxanes and one or more inert gases to a substrate in a chamber. In one aspect, the gas mixture further includes one or more oxidizing gases. The ratio of a total flow rate of the one or more cyclic organosiloxanes into the chamber to a total flow rate of the one or more inert gases into the chamber is from about 0.10 to about 0.20. Preferably, the low dielectric constant film has compressive stress.
摘要:
Embodiments in accordance with the present invention relate to multi-stage curing processes for chemical vapor deposited low K materials. In certain embodiments, a combination of electron beam irradiation and thermal exposure steps may be employed to control selective outgassing of porogens incorporated into the film, resulting in the formation of nanopores. In accordance with one specific embodiment, a low K layer resulting from reaction between a silicon-containing component and a non-silicon containing component featuring labile groups, may be cured by the initial application of thermal energy, followed by the application of radiation in the form of an electron beam.
摘要:
Ultra low K nanoporous dielectric films may be formed by chemical vapor deposition of silicon-containing components and large non-silicon containing porogens having labile groups. In accordance with one embodiment of the present invention, a low K nanoporous film may be formed by the oxidative reaction between trimethylsilane (the silicon-containing component) and alpha-terpinene (the non-silicon containing component). In accordance with certain embodiments of the present invention, the oxidant can comprise other than molecular oxygen, for example water vapor introduced in-situ or remotely, and then exposed to RF energy to generate reactive ionic species.
摘要:
Ultra low K nanoporous dielectric films may be formed by chemical vapor deposition of silicon-containing components and large non-silicon containing porogens having labile groups. In accordance with one embodiment of the present invention, a low K nanoporous film may be formed by the oxidative reaction between trimethylsilane (the silicon-containing component) and alpha-terpinene (the non-silicon containing component). In accordance with certain embodiments of the present invention, the oxidant can comprise other than molecular oxygen, for example water vapor introduced in-situ or remotely, and then exposed to RF energy to generate reactive ionic species.
摘要:
A method for depositing a low dielectric constant film includes providing a gas mixture including a cyclic organosiloxane and N2O as an oxidizing gas to a chamber and applying RF power to the gas mixture to deposit a low dielectric constant film. The gas mixture may also include oxygen and/or a linear hydrocarbon. In one aspect, the gas mixture includes N2O and oxygen as oxidizing gases, and a ratio of the flow rate of the N2O to a total flow rate of the N2O and the oxygen is between about 0.1 and about 0.5.
摘要翻译:一种沉积低介电常数膜的方法包括:向室内提供包含环状有机硅氧烷和N 2 O 2的气体混合物作为氧化气体,并将RF功率施加到气体混合物以沉积低介电常数 电影。 气体混合物还可以包括氧和/或直链烃。 在一个方面,气体混合物包括N 2 O 3和氧气作为氧化气体,并且N 2 O 2的流量与总体流速的比率 N 2 O,氧在约0.1至约0.5之间。
摘要:
Embodiments in accordance with the present invention relate to multi-stage curing processes for chemical vapor deposited low K materials. In certain embodiments, a combination of electron beam irradiation and thermal exposure steps may be employed to control selective outgassing of porogens incorporated into the film, resulting in the formation of nanopores. In accordance with one specific embodiment, a low K layer resulting from reaction between a silicon-containing component and a non-silicon containing component featuring labile groups, may be cured by the initial application of thermal energy, followed by the application of radiation in the form of an electron beam.
摘要:
A method of depositing a organosilicate dielectric layer exhibiting high adhesion strength to an underlying substrate disposed within a single processing chamber without plasma arcing. The method includes positioning a substrate within a processing chamber having a powered electrode, flowing an interface gas mixture into the processing chamber, the interface gas mixture comprising one or more organosilicon compounds and one or more oxidizing gases, depositing a silicon oxide layer on the substrate by varying process conditions, wherein DC bias of the powered electrode varies less than 60 volts.
摘要:
A method of depositing a organosilicate dielectric layer exhibiting high adhesion strength to an underlying substrate disposed within a single processing chamber without plasma arcing. The method includes positioning a substrate within a processing chamber having a powered electrode, flowing an interface gas mixture into the processing chamber, the interface gas mixture comprising one or more organosilicon compounds and one or more oxidizing gases, depositing a silicon oxide layer on the substrate by varying process conditions, wherein DC bias of the powered electrode varies less than 60 volts.
摘要:
Embodiments in accordance with the present invention relate to multi-stage curing processes for chemical vapor deposited low K materials. In certain embodiments, a combination of electron beam irradiation and thermal exposure steps may be employed to control selective outgassing of porogens incorporated into the film, resulting in the formation of nanopores. In accordance with one specific embodiment, a low K layer resulting from reaction between a silicon-containing component and a non-silicon containing component featuring labile groups, may be cured by the initial application of thermal energy, followed by the application of radiation in the form of an electron beam.