Abstract:
A combination of a dry oxidizing, wet etching, and wet cleaning processes are used to remove particle defects from a wafer after ion implantation, as part of a wafer bonding process to fabricate a SOI wafer. The particle defects on the topside and the backside of the wafer are oxidized, in a dry strip chamber, with an energized gas. In a wet clean chamber, the backside of the wafer is treated with an etchant solution to remove completely or partially a thermal silicon oxide layer, followed by exposure of the topside and the backside to a cleaning solution. The cleaning solution contains ammonium hydroxide, hydrogen peroxide, DI water, and optionally a chelating agent, and a surfactant. The wet clean chamber is integrated with the dry strip chamber and contained in a single wafer processing system.
Abstract:
The present invention is a novel cleaning method and a solution for use in a single wafer cleaning process. According to the present invention the cleaning solution comprises ammonium hydroxide (NH4OH), hydrogen peroxide (H2O2), water (H2O) and a chelating agent. In an embodiment of the present invention the cleaning solution also contains a surfactant. And still yet another embodiment of the present invention the cleaning solution also comprises a dissolved gas such as H2. In a particular embodiment of the present invention, this solution is used by spraying or dispensing it on a spinning wafer.
Abstract translation:本发明是一种新颖的清洁方法和用于单晶片清洗工艺的解决方案。 根据本发明,清洗溶液包含氢氧化铵(NH 4 OH),过氧化氢(H 2 O 2 O 2),水(H O 2)和螯合剂。 在本发明的一个实施方案中,清洁溶液还含有表面活性剂。 而且本发明还有另一个实施方案,清洗溶液还包括溶解气体,例如H 2。 在本发明的一个具体实施方案中,该溶液通过喷雾或分配在旋转晶片上而被使用。
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:
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:
According to one aspect of the present invention, a method and apparatus for cleaning a semiconductor substrate is provided. The method may include supporting a semiconductor substrate, the semiconductor substrate having a surface, and dispensing an amount of semiconductor substrate processing liquid onto the surface of the semiconductor substrate, the amount of semiconductor substrate processing liquid being such that substantially none of the semiconductor substrate processing liquid flows off the surface of the semiconductor substrate. The semiconductor substrate processing fluid may form a standing puddle on the surface of the semiconductor substrate. The semiconductor substrate may be rotated while the semiconductor substrate processing liquid is on the surface of the semiconductor substrate such that substantially all of the amount of semiconductor substrate processing liquid remains on the surface of the semiconductor substrate during said rotation.
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:
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.
Abstract:
According to one aspect of the invention, a semiconductor substrate processing apparatus and a method for processing semiconductor substrates are provided. The semiconductor substrate processing apparatus may include a semiconductor substrate support, a dispense head positioned over the semiconductor substrate support, a liquid container, and a transport subsystem. A semiconductor substrate may be placed on the semiconductor substrate support while a first semiconductor processing liquid is dispensed thereon. The wafer may also be spun by the semiconductor substrate support to remove the first semiconductor processing liquid. The transport subsystem may transport the semiconductor substrate to the liquid container where the semiconductor substrate may be immersed in a second semiconductor processing liquid. The semiconductor substrate may then be removed from the second semiconductor processing liquid while vapor is directed at a surface of the semiconductor substrate where the semiconductor substrate contacts a surface of the second semiconductor processing liquid.
Abstract:
A method and apparatus for matching impedance magnitude and impedance phase for an acoustic-wave transducer load and an RF power source. The acoustic-wave transducer load has a load impedance magnitude and phase. The RF power source has a source impedance magnitude and phase. In one embodiment of the invention, a transformer matches the source and load impedance magnitudes. A capacitor, connected in series with the transformer, matches the source impedance phase to the load impedance phase.
Abstract:
The present invention is directed to wet processing methods for the manufacture of electronic component precursors, such as semiconductor wafers used in integrated circuits. The electronic component precursors are placed in a reaction chamber and contacted with at least one reactive chemical process fluid for a selected period of time. The reactive process fluid can be, for example, hydrofluoric acid. The electronic component precursors are then exposed directly to a drying fluid, with no intervening rinsing fluid, for a selected period of time. The drying fluid can be a vapor.