Applied Materials, Inc.

Other

Micron Technology Incorporated

Paul F Smith

Gurtej S Sandhu

Mei Yin Chang

Sujit Sharan

Robin W Cheung

Lawrence C Lei

Yu Wen Chang

Joel M Huston

Siqing Lu

Quyen Pham

Cecilia Martner

Yu Ping Gu

Yezdi N Dordi

Liang-Yuh Chen

Ashok K Sinha

Ratson Morad

Daniel A Carl

Peter W Hey

Gabriel Lorimer Miller

Michael Xiaoxuan Yang

Joseph Yudovsky

Ling Chen

Barry Lee Chin

Ming Xi

Fusen E Chen

Jun Zhao

Christophe Marcadal

Lee Luo

Semyon Sherstinsky

Umesh M Kelkar

Talex Sajoto

Nitin Khurana

Stefan A Wolff

Jenny Lin

Michael J Wood

Alan R Popiolkowski

Xiao Liang Jin

Leonel Arturo Zuniga

Ted G Yoshidome

Jia-Xiang Wang

Rod Mosely

Alison Gilliam

G Lorimer Miller

Anthony T Fredricks

A method and apparatus are provided for measuring the thickness of a test object. The apparatus includes an eddy current sensor having first and second sensor heads. The sensor heads are positioned to have a predetermined gap therebetween for passage by at least a portion of the test object through the gap. The sensor heads make measurements at given sampling locations on the test object as the test object is moved through the gap. The apparatus also includes a position sensing mechanism to determine positions of the sampling locations on the test object. The apparatus also includes an evaluation circuit in communication with the eddy current sensor and to the position sensing mechanism for determining the thickness of the test object at the sampling locations.

Method and apparatus for measuring a thickness of a layer of a wafer

Apparatus and method of dynamically measuring thickness of a layer of a substrate

Method and apparatus for dynamically measuring the thickness of an object

Embodiments of the present invention provide a process sequence and related hardware for filling a patterned feature on a substrate with a metal, such as copper. The sequence comprises first forming a reliable barrier layer in the patterned feature to prevent diffusion of the metal into the dielectric layer through which the patterned feature is formed. One sequence comprises forming a generally conformal barrier layer over a patterned dielectric, etching the barrier layer at the bottom of the patterned feature, depositing a second barrier layer, and then filling the patterned feature with a metal, such as copper.

Reliability barrier integration for Cu application

An apparatus and method is provided for analyzing or conditioning an electrochemical bath. One aspect of the invention provides a method for analyzing an electrochemical bath in an electrochemical deposition process including providing a first electrochemical bath having a first bath composition, utilizing the first electrochemical bath in an electrochemical deposition process to form a second electrochemical bath having a second bath composition and analyzing the first and second compositions to identify one or more constituents generated in the electrochemical deposition process. Additive material having a composition that is substantially the same as all or at least some of the one or more constituents generated in the electrochemical deposition process may be added to another electrochemical bath to produce a desired chemical composition. The constituents may be added at the beginning of the use of the bath to initially condition the electrochemical bath or may be added, preferably either continuously or periodically, during the electrochemical deposition process.

Method of conditioning electrochemical baths in plating technology

A method for processing a substrate. The method generally includes forming a copper interconnect in a sacrificial layer deposited on the substrate by patterning the sacrifical layer to form an interconnect and filling the interconnect with copper. The method additionally includes removing at least a portion of the sacrificial layer upon copper interconnect formation, depositing a barrier layer on the copper interconnect, and depositing a dielectric layer on the barrier layer.

Post metal barrier/adhesion film

Plasma enhanced chemical vapor deposition (PECVD) reactors and methods of effecting the same are described. In accordance with a preferred implementation, a reaction chamber includes first and second electrodes operably associated therewith. A single RF power generator is connected to an RF power splitter which splits the RF power and applies the split power to both the first and second electrodes. Preferably, power which is applied to both electrodes is in accordance with a power ratio as between electrodes which is other than a 1:1 ratio. In accordance with one preferred aspect, the reaction chamber comprises part of a parallel plate PECVD system. In accordance with another preferred aspect, the reaction chamber comprises part of an inductive coil PECVD system. The power ratio is preferably adjustable and can be varied. One manner of effecting a power ratio adjustment is to vary respective electrode surface areas. Another manner of effecting the adjustment is to provide a power splitter which enables the output power thereof to be varied. PECVD processing methods are described as well.

RF powered plasma enhanced chemical vapor deposition reactor and methods of effecting plasma enhanced chemical vapor deposition

A gas delivery apparatus and method for directing a flow of gas to the edge of a substrate at an angle to the radial direction of the substrate is provided. The apparatus directs the gas from a gas opening, over a plurality of grooves that are angled relative to a radial line originating at a center of the gas delivery apparatus. Subsequently, the gas is flowed over a portion of the substrate to prevent reactive gases from depositing on selective portions of the substrate.

Heater for processing chamber

The present invention discloses a system that provides for electroless deposition performed in-situ with an electroplating process to minimize oxidation and other contaminants prior to the electroplating process. The system allows the substrate to be transferred from the electroless deposition process to the electroplating process with a protective coating to also minimize oxidation. The system generally includes a mainframe having a mainframe substrate transfer robot, a loading station disposed in connection with the mainframe, one or more processing facilities disposed in connection with the mainframe, an electroless supply fluidly connected to the one or more processing applicators and optionally includes a spin-rinse-dry (SRD) station, a rapid thermal anneal chamber and a system controller for controlling the deposition processes and the components of the electro-chemical deposition system.

In-situ electroless copper seed layer enhancement in an electroplating system

Plasma enhanced chemical vapor deposition (PECVD) reactors and methods of effecting the same are described. In a preferred implementation, a PECVD reactor includes a processing chamber having a first electrode therewithin. A second electrode is disposed within the chamber and is configured for supporting at least one semiconductor workpiece for processing. A first RF power source delivers RF power of a first frequency to the first electrode. A second RF power source delivers RF power of a second frequency to the second electrode. Preferably the first and second frequencies are different from one another, and even more preferably, the first frequency is greater than the second frequency. The preferred reactor includes a thermocouple which provides temperature information relative to one of the electrodes. According to a preferred implementation, the power loop developed by the first RF power source is grounded interiorly of the chamber in a manner which reduces if not eliminates interference with other reactor components including the thermocouple.

RF powered plasma enhanced chemical vapor deposition reactor and methods

Growing community of inventors

San Jose, CA, United States of America

Paul F Smith