Abstract:
A method of removing organic-containing layers, such as photoresists, high temperature organic layers, or organic dielectric materials, from large surface area substrates by plasma treatment at or near atmospheric pressure, wherein said large surface area substrate is transported on a conveyor belt system during said plasma treatment. The plasma is typically principally comprised of a chemically non-reactive species, such as helium. The method can be integrated in-line with the wet strip and/or wet clean, or it can be used in a stand alone system. The apparatus for carrying out the method is also described.
Abstract:
Embodiments of the current invention describe ammonia hydroxide treatments for surfaces. In one embodiment, a method and a cleaning solution including ammonium hydroxide (NH4OH), water (H2O), a chelating agent, and a surfactant for cleaning silicon germanium substrates are described. The cleaning solution does not include hydrogen peroxide (H2O2) because hydrogen peroxide etches germanium. In another embodiment, a method of terminating oxidized surfaces on semiconductor substrates with terminating groups that promote the bonding of the oxidized surface to another surface with a surface treatment containing ammonium hydroxide (NH4OH) is described. The oxidized surface is immediately bonded to a second substrate after evaporation of the surface treatment.
Abstract translation:本发明的实施方案描述了表面的氨氢氧化物处理。 在一个实施方案中,包括氢氧化铵(NH 4 OH),水(H 2 O 2 O),螯合剂和用于清洁硅的表面活性剂的方法和清洗溶液 描述锗基底。 由于过氧化氢蚀刻锗,清洗溶液不包括过氧化氢(H 2 O 2 O 2)。 在另一个实施方案中,描述了通过含有氢氧化铵(NH 4 OH)的表面处理促进氧化表面与另一表面结合的端基的半导体衬底上的氧化表面的方法。 蒸发表面处理后,氧化表面立即与第二基板结合。
Abstract:
Embodiments of the current invention describe ammonia hydroxide treatments for surfaces. In one embodiment, a method and a cleaning solution including ammonium hydroxide (NH4OH), water (H2O), a chelating agent, and a surfactant for cleaning silicon germanium substrates are described. The cleaning solution does not include hydrogen peroxide (H2O2) because hydrogen peroxide etches germanium. In another embodiment, a method of terminating oxidized surfaces on semiconductor substrates with terminating groups that promote the bonding of the oxidized surface to another surface with a surface treatment containing ammonium hydroxide (NH4OH) is described. The oxidized surface is immediately bonded to a second substrate after evaporation of the surface treatment.
Abstract translation:本发明的实施方案描述了表面的氨氢氧化物处理。 在一个实施方案中,包括氢氧化铵(NH 4 OH),水(H 2 O 2 O),螯合剂和用于清洁硅的表面活性剂的方法和清洗溶液 描述锗基底。 由于过氧化氢蚀刻锗,清洗溶液不包括过氧化氢(H 2 O 2 O 2)。 在另一个实施方案中,描述了通过含有氢氧化铵(NH 4 OH)的表面处理促进氧化表面与另一表面结合的端基的半导体衬底上的氧化表面的方法。 蒸发表面处理后,氧化表面立即与第二基板结合。
Abstract:
Disclosed herein is a method of removing an organic material from an electronic device substrate surface. The method is particularly useful when the device substrate includes exposed metal. According to the present method, an electronic device substrate surface is exposed to a solution comprising ozone (O3) at a concentration ranging from about 45 ppm to about 600 ppm in a solvent consisting of pure propionic acid or propionic acid in combination with deionized water or a carbonate having from 2 to 4 carbons. The method is particularly useful in the manufacture of large surface areas covered with device structures, such as electronic TFT flat panel displays, solar cell arrays, and structures containing light-emitting diodes. The method is also useful for removing organic materials from the surface of solid state device-containing semiconductor substrates.
Abstract:
A method of fabricating a semiconductor device. The method comprises subjecting a substrate having formed thereon photoresist layer to a plasma hydrogen, the substrate further having formed thereon a sacrificial layer; contacting the photoresist layer with a photoresist removal solution; subjecting the sacrificial layer to a plasma hydrogen; and contacting the sacrificial material layer with an etchant solution.
Abstract:
Methods of preventing air-liquid interfaces on the surface of a wafer in order to prevent the formation of particle defects on a wafer are presented. The air-liquid interfaces may be prevented by covering the entire surface of the wafer with liquid at all times during a cleaning process while the surface of the wafer is hydrophobic. Methods of preventing the formation of silica agglomerates in a liquid during a pH transition from an alkaline pH to a neutral pH are also presented, including minimizing the turbulence in the liquid solution and reducing the temperature of the liquid solution during the transition.
Abstract:
An apparatus for wet processing individual wafers comprising; a means for holding the wafer; a means for providing acoustic energy to a non-device side of the wafer; and a means for flowing a fluid onto a device side of the wafer.
Abstract:
A single wafer cleaning apparatus that includes a rotatable bracket that can hold a wafer, a rinse fluid having a first surface tension, a second fluid having a second surface tension lower than the first surface tension, a first nozzle capable of applying the rinse fluid at a first location on the wafer positioned in the bracket, second nozzle capable of applying the second fluid at a second location on the wafer where the second location is inboard of the first location, and the first nozzle and the second nozzle are capable of moving across the wafer to translate the first location and the second location from the wafer center to the wafer outer edge.
Abstract:
Methods of preventing air-liquid interfaces on the surface of a wafer in order to prevent the formation of particle defects on a wafer are presented. The air-liquid interfaces may be prevented by covering the entire surface of the wafer with liquid at all times during a cleaning process while the surface of the wafer is hydrophobic. Methods of preventing the formation of silica agglomerates in a liquid during a pH transition from an alkaline pH to a neutral pH are also presented, including minimizing the turbulence in the liquid solution and reducing the temperature of the liquid solution during the transition.
Abstract:
A method that includes rotating a wafer, heating the wafer, applying a first liquid through one or more nozzles to a center of a topside of the wafer that is cooler than the heated wafer, and translating the one or more nozzles to an outer diameter edge of the wafer.