Abstract:
system and method of cleaning a substrate (202) includes a megasonic chamber (206) that includes a transducer (210) and a substrate (202). The transducer (210) is being oriented toward the substrate (202). A variable distance d separates the transducer (210) and the substrate (202). The system (200) also includes a dynamically adjustable RF generator (212) that has an output coupled to the transducer. The dynamically adjustable RF generator (212) can be controlled by a phase comparison of an oscillator output (306) voltage and a phase of an RF generator output voltage. The dynamically adjustable RF generator (212) can also be controlled by monitoring a peak voltage of an output signal and controlling the RF generator to maintain the peak voltage within a predetermined voltage range. The dynamically adjustable RF generator (212) can also be controlled by dynamically controlling a variable DC power supply voltage.
Abstract:
PROBLEM TO BE SOLVED: To provide equipment and a method which effectively perform the supply and elimination of a flow on the surface of a wafer while reducing smearing on the wafer and reducing treatment cost. SOLUTION: In one of many embodiments, a method for treating a substrate and a proximity type proximity processing head used for the method are disclosed. The method includes a process for generating a first fluid meniscus and a second fluid meniscus which at least surrounds the first fluid meniscus partially. The first fluid meniscus and the second fluid meniscus are generated on the surface of the substrate. COPYRIGHT: (C)2006,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To provide an apparatus and method for reducing contamination capable of achieving lower costs, and more sufficiently supplying and removing fluid to and from a wafer surface. SOLUTION: Processing fluid is supplied to the wafer surface and almost instantly removed with fluid on a wafer by a vacuum provided by an outlet 304. The processing fluid is supplied to the wafer surface such that the processing fluid is present in an area between a proximity head and the wafer surface for a moment with the given fluid on the wafer surface. In this processing, a meniscus 116 is formed and the boundary of the meniscus 116 acts as an IPA/processing fluid interface 118. Therefore, the meniscus 116 is supplied to the surface and practically acts as a fixed flow removed with the given fluid on the wafer surface. The fluid is almost instantly removed from the wafer surface area during drying, so that the formation of droplets of the fluid is prevented in the wafer surface area during drying and the probability of contamination on a wafer 108 is reduced. COPYRIGHT: (C)2006,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To reduce contamination and reduce wafer cleaning cost in semiconductor wafer processing. SOLUTION: Management of movement of a manifold carrier 104, movement of a secondary manifold 102, flow-in and drain of a fluid between a primary manifold 106 and the secondary manifold 102, and flow-in and drain of a fluid using a flow-in channel and a drain channel are managed by a fluid controller 250. The fluid controller 250 comprises any appropriate software and/or hardware that is executable of appropriate adjustment and movement required for monitoring wafer processing and processing a wafer 108 as required using the primary manifold 106, secondary manifold 102, and manifold carrier 104. The secondary manifold 102 further moves the primary manifold 106 to an opening 109. COPYRIGHT: (C)2006,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To provide a substrate processing apparatus that can manage fluids on wafer surfaces, while reducing contamination. SOLUTION: A wafer processing operation, that can be conducted by a proximity head 106a, is illustrated. Although a top surface 108a being processed is shown, it should be noted that wafer processing can be accomplished, in substantially the same way for a bottom surface 108b of a wafer 108. In one embodiment, inlets 302 can be utilized to supply isopropyl alcohol (IPA) vapor toward the top surface 108a of the wafer 108, and an inlet 306 can be utilized to supply a processing fluid toward the top surface 108a of the wafer 108. In addition, outlets 304 can be utilized to suck a region in close proximity to the wafer surface to remove fluid or vapor that can be located on or near the top surface 108a. As described above, any suitable combination of inlets and outlets may be utilized, as long as a meniscus 116 can be formed. COPYRIGHT: (C)2006,JPO&NCIPI
Abstract:
IN ONE OF THE MANY EMBODIMENTS, A METHOD FOR PROCESSING A SUBSTRATE (108) IS DISCLOSED WHICH INCLUDES GENERATING A FIRST FLUID MENISCUS (116A; 116A', 116C; 116C-1, 116C-2) AND A SECOND FLUID MENISCUS (116B, 116B'; 116B-1, 116B-2) AT LEAST PARTIALLY SURROUNDING THE FIRST FLUID MENISCUS WHEREIN THE FIRST FLUID MENISCUS AND THE SECOND FLUID MENISCUS ARE GENERATED ON A SURFACE OF THE SUBSTRATE.
Abstract:
AN APPARATUS FOR PROCESSING A SUBSTRATE (108) IS PROVIDED WHICH INCLUDES A FIRST MANIFOLD MODULE (106) TO GENERATE A FLUID MENISCUS (140) ON A SUBSTRATE SURFACE. THE APPARATUS ALSO INCLUDES A SECOND MANIFOLD MODULE (102) TO CONNECT WITH THE FIRST MANIFOLD MODULE (106) AND ALSO TO MOVE THE FIRST MANIFOLD MODULE (106) INTO CLOSE PROXIMITY TO THE SUBSTRATE SURFACE TO GENERATE THE FLUID MENISCUS (140).
Abstract:
A plasma processing system that includes a temperature management system and method that can achieve very accurate temperature control over a plasma processing apparatus is disclosed. In one embodiment, the temperature management system and method operate to achieve tight temperature control over surfaces of the plasma processing apparatus which interact with the plasma during fabrication of semiconductor devices. The tight temperature control offered by the invention can be implemented with combination heating and cooling blocks such that both heating and cooling can be provided from the same thermal interface.
Abstract:
AMONG THE MANY EMBODIMENT, IN ONE EMBODIMENT, A METHOD FOR PROCESSING A SUBSTRATE (108) IS DISCLOSED WHICH INCLUDES GENERATING A FLUID LAYER ON A SURFACE OF THE SUBSTRATE (108), THE FLUID LAYER DEFINING A FLUID MENISCUS (116). THE GENERATING INCLUDES MOVING A HEAD (106) IN PROXIMITY TO THE SURFACE, APPLYING A FLUID FROM THE HEAD (106) TO THE SURFACE WHILE THE HEAD (106) IS IN PROXIMITY TO THE SURFACE OF THE SUBSTRATE (108) TO DEFINE THE FLUID LAYER, AND REMOVING THE FLUID FROM THE SURFACE THROUGH THE PROXIMITY HEAD BY A VACUUM (312). THE FLUID TRAVELS ALONG THE FLUID LAYER BETWEEN THE HEAD (106) AND THE SUBSTRATE (108) AT A VELOCITY THAT INCREASES AS THE HEAD (106) IS IN CLOSER PROXIMITY TO THE SURFACE.
Abstract:
system and method of cleaning a substrate (202) includes a megasonic chamber (206) that includes a transducer (210) and a substrate (202). The transducer (210) is being oriented toward the substrate (202). A variable distance d separates the transducer (210) and the substrate (202). The system (200) also includes a dynamically adjustable RF generator (212) that has an output coupled to the transducer. The dynamically adjustable RF generator (212) can be controlled by a phase comparison of an oscillator output (306) voltage and a phase of an RF generator output voltage. The dynamically adjustable RF generator (212) can also be controlled by monitoring a peak voltage of an output signal and controlling the RF generator to maintain the peak voltage within a predetermined voltage range. The dynamically adjustable RF generator (212) can also be controlled by dynamically controlling a variable DC power supply voltage.