Abstract:
Various embodiments provide a substrate carrier configured to rotatably carry at least one substrate through a plurality of processing stations. The substrate carrier includes an integrated heater for heating a first side of the substrate while the second side of the substrate undergoes one or more manufacturing processes at each of the plurality of processing stations, e.g., to promote the desired growth of HAMR media. This can result in the elimination of one or more processing stations, thereby realizing cost savings, decreased substrate processing time, as well as a reduced area within which a substrate processing system can be implemented.
Abstract:
Oxide growth of a gate dielectric layer that occurs between processes used in the fabrication of a gate dielectric structure can be reduced. The reduction in oxide growth can be achieved by maintaining the gate dielectric layer in an ambient effective to mitigate oxide growth of the gate dielectric layer between at least two sequential process steps used in the fabrication the gate dielectric structure. Maintaining the gate dielectric layer in an ambient effective to mitigate oxide growth also improves the uniformity of nitrogen implanted in the gate dielectric.
Abstract:
Certain embodiments herein relate to methods and apparatus for processing a partially fabricated semiconductor substrate in a remote plasma environment. The methods may be performed in the context of wafer level packaging (WLP) processes. The methods may include exposing the substrate to a reducing plasma to remove photoresist scum and/or oxidation from an underlying seed layer. In some cases, photoresist scum is removed through a series of plasma treatments involving exposure to an oxygen-containing plasma followed by exposure to a reducing plasma. In some embodiments, an oxygen-containing plasma is further used to strip photoresist from a substrate surface after electroplating. This plasma strip may be followed by a plasma treatment involving exposure to a reducing plasma. The plasma treatments herein may involve exposure to a remote plasma within a plasma treatment module of a multi-tool electroplating apparatus.
Abstract:
An objective of the present invention is to simplify a configuration of a processing chamber for cooling a substrate in a substrate processing device. In a plasma processing device (10) whereby a plasma process is carried out upon a wafer (W), the wafer (W) which is plasma processed is conveyed into a load-lock chamber (13), and gas is discharged from a gas discharge member (25) upon the surface of the wafer (W), cooling the wafer (W). The gas discharge member (25) comprises a structure wherein a plurality of gas discharge nozzles (35) are formed in one flat plate face of a flat plate member (31). The gas discharge nozzles (35) comprise cylindrical eddy generating chambers (41), and nozzle holes (42) which are opened in bottom walls (52) of the eddy generating chambers (41) and discharge the gas. The flat plate face of the wafer (W) and the flat plate face wherein the gas discharge nozzles (35) are formed in the flat plate member (31) are positioned in parallel at a prescribed gap. A purge gas is discharged from the nozzle holes (42) toward the wafer (W), and a flow of an eddy is made to arise in the discharged purge gas, thereby cooling the wafer (W), and simultaneously switching the interior of the load-lock chamber (13) from a vacuum environment to an atmospheric pressure environment.
Abstract:
Systems and methods for performing chamber matching are described. One of the methods for performing chamber matching includes executing a first test within a first plasma chamber to measure a variable and executing a second test within a second plasma chamber to measure the variable. The first and second tests are executed based on one recipe. The method further includes determining a first relationship between the variable measured with the first test and power provided during the first test, determining a second relationship between the variable measured with the second test and power provided during the second test, and identifying power adjustment to apply to the second plasma chamber during a subsequent processing operation based on the first and second relationships. The power adjustment causes the second plasma chamber to perform the processing operation in a processing condition determined using the first plasma chamber.
Abstract:
The present invention provides a manufacturing apparatus which can realize so-called sequential substrate transfer and can improve throughput, even when one multi-layered thin film includes plural layers of the same film type. A manufacturing apparatus according to an embodiment of the present invention includes a transfer chamber, three sputtering deposition chambers each including one sputtering cathode, two sputtering deposition chambers each including two or more sputtering cathodes, and a process chamber for performing a process other than sputtering, and the three sputtering deposition chambers, the two sputtering deposition chambers, and the process chamber are arranged around the transfer chamber so that each is able to perform delivery and receipt of the substrate with the transfer chamber.
Abstract:
A plasma processing apparatus includes processing units, each of which subjects a sample to processing inside a processing chamber in a vacuum vessel, vacuum transfer chambers which are coupled to the processing units and each have an interior where a sample is transferred under reduced pressure, an intermediate chamber which has, in an interior, a space where a transferred sample is housed, a buffer chamber which is capable of housing a sample arranged in an interior of the vessel, a mounting table which is arranged in the buffer chamber and is adjusted to a prescribed temperature and on which a sample is placed, an opening through which a sample is taken in or out, and a lid member which opens or hermetically closes the opening, and a sample is transferred between the processing unit and a lock chamber via the buffer chamber.
Abstract:
Disclosed herein is a semiconductor manufacturing apparatus including a transfer chamber provided with a substrate moving device to move substrates, a load lock chamber to align the substrates and to load and unload the substrates into and out of the transfer chamber, and at least one process chamber to process the substrates transferred from the transfer chambers. Each of the at least one process chamber includes a chamber provided with a substrate entrance formed on a side surface thereof, a substrate support provided within the chamber such that at least two substrates are disposed on the substrate support, and at least one divider provided within the chamber to align the at least two substrates.
Abstract:
An apparatus for growing diamonds, the apparatus comprising: one or more chambers, each chamber is in fluid connection with one or more other chambers, each chamber comprising one or more substrate stage assembly within the chamber to support a substrate stage having a plurality of diamond seeds disposed thereon.
Abstract:
In a Cu wiring structure forming method, a barrier film serving as a Cu diffusion barrier is formed at least on a surface of a recess in a first insulating film formed on a substrate, and the recess is filled with an Al-containing Cu film. A Cu wiring is formed from the Al-containing Cu film, and a cap layer including a Ru film is formed on the Cu wiring. Further, an interface layer containing a Ru—Al alloy is formed at an interface between the Cu wiring and the cap layer by heat generated in forming the cap layer or by a heat treatment performed after forming the cap layer. A second insulating film is formed on the cap layer.