Applied Materials, Inc.

Farzad Houshmand

Philip Allan Kraus

Anantha K Subramani

John C Forster

Kallol Bera

Abhishek Chowdhury

Kelvin Chan

Hanhong Chen

Thai Cheng Chua

David J Coumou

Christian Amormino

Mark Joseph Saly

Thomas B Brezoczky

Steven Victor Sansoni

Bencherki Mebarki

Prashanth Kothnur

Kaushal Gangakhedkar

Lakmal Charidu Kalutarage

John Joseph Mazzocco

Chuang-Chia Lin

David John Peterson

Yang Guo

Praburam Gopal Raja

Abdullah Zafar

Nattaworn Nuntaworanuch

Kristopher Ford

Ping-Hwa Hsieh

Usman Chowdhury

Wayne French

Kasturi Sarang

Vapor concentration sensors for deposition process or deposition chamber condition monitoring are described. In an example, a deposition system includes a deposition chamber, a deposition precursor source coupled to an inlet of the deposition chamber, and a non-dispersive infrared (NDIR) vapor concentration sensor between the deposition precursor source and the deposition chamber.

Vapor concentration sensors for process chambers

Embodiments disclosed herein include a module, comprising: a substrate, wherein the substrate comprises a dielectric material, and a microstrip resonator on the substrate. In an embodiment, a microstrip transmission line is on the substrate adjacent to the microstrip resonator, and the microstrip resonator is spaced from the microstrip transmission line by a gap. In an embodiment, a ground plane on a surface of the substrate is opposite from the microstrip resonator.

Printed microwave resonator for measuring high electron density plasmas

Embodiments include a plasma processing tool that includes a processing chamber, and a plurality of modular microwave sources coupled to the processing chamber. In an embodiment, the plurality of modular microwave sources include an array of applicators that are positioned over a dielectric body that forms a portion of an outer wall of the processing chamber. The array of applicators may be coupled to the dielectric body. Additionally, the plurality of modular microwave sources may include an array of microwave amplification modules. In an embodiment, each microwave amplification module may be coupled to at least one of the applicators in the array of applicators. According to an embodiment, the dielectric body be planar, non-planar, symmetric, or non-symmetric. In yet another embodiment, the dielectric body may include a plurality of recesses. In such an embodiment, at least one applicator may be positioned in at least one of the recesses.

Symmetric and irregular shaped plasmas using modular microwave sources

Some embodiments include a method of depositing a photoresist onto a substrate in a processing chamber. In an embodiment, the method comprises flowing an oxidant into the processing chamber through a first path in a showerhead, and flowing an organometallic into the processing chamber through a second path in the showerhead. In an embodiment, the first path is isolated from the second path so that the oxidant and the organometallic do not mix within the showerhead. In an embodiment, the method further comprises that the oxidant and the organometallic react in the processing chamber to deposit the photoresist on the substrate.

Photoresist deposition using independent multichannel showerhead

Plasma source assemblies comprising a housing with an RF hot electrode having a body and a plurality of source electrodes extending vertically from the RF hot electrode toward the opening in a front face of the housing are described. Processing chambers incorporating the plasma source assemblies and methods of using the plasma source assemblies are also described.

Symmetric plasma source to generate pie-shaped treatment

Plasma source assemblies comprising an RF hot electrode having a body and at least one return electrode spaced from the RF hot electrode to provide a gap in which a plasma can be formed. An RF feed is connected to the RF hot electrode at a distance from the inner peripheral end of the RF hot electrode that is less than or equal to about 25% of the length of the RF hot electrode.

Plasma source for rotating susceptor

Methods and apparatus for low angle, selective plasma deposition on a substrate. A plasma chamber uses a process chamber having an inner processing volume, a three dimensional (3D) magnetron with a sputtering target with a hollow inner area that overlaps at least a portion of sides of the sputtering target and moves in a linear motion over a length of the sputtering target, a housing surrounding the 3D magnetron and the sputtering target such that at least one side of the housing exposes the hollow inner area of the sputtering target, and a linear channel interposed between the housing and a wall of the process chamber.

Methods and apparatus for producing low angle depositions

Symmetric plasma source to generate pie shaped treatment

Plasma source assemblies comprising a housing with an RF hot electrode and a return electrode are described. The housing includes a gas inlet and a front face defining a flow path. The RF hot electrode includes a first surface oriented substantially parallel to the flow path. The return electrode includes a first surface oriented substantially parallel to the flow path and spaced from the first surface of the RF hot electrode to form a gap. Processing chambers incorporating the plasma source assemblies and methods of using the plasma source assemblies are also described.

Lateral plasma/radical source

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Mountain View, CA, United States of America

Farzad Houshmand