Intel Corporation

Ovonyx Inc.

Other

Novellus Systems Incorporated

Chien Chiang

David B Fraser

Tyler A Lowrey

Daniel Xu

Chuanbin Pan

Charles H Dennison

Sychyi Fang

Guy Charles Wicker

Vicky M Ochoa

Patrick J Neschleba

Johanna M Swan

Valluri Ramana Rao

Sasson Roger Somekh

Patrick K Klersy

Gary William Ray

Jong-Won Sean Lee

Greg Atwood

Bala Natarajan

Jeremy A Theil

Sing-Mo Tzeng

Tom Wu

Joyce C Sum

Brian S Doyle

Ian A Young

Peng Cheng

Stephen J Hudgens

Jin Hyung Lee

Quat T Vu

Thomas N Marieb

Eng T Gaw

Mark Thiec-Hien Tran

Sing-Mo H Tzeng

Chaunbin Pan

Anne S Mack

Thomas N D Marieb

Methods are provided for forming a circuit component on a workpiece substrate. The methods comprise the steps of depositing a dielectric material over the substrate; etching a pattern through the dielectric material to expose a portion of the substrate; depositing a barrier metal over the dielectric material and the exposed portion of the substrate; depositing a conductive metal over the barrier metal, the deposited conductive metal having a thickness sufficient to fill the etched pattern; planarizing the conductive metal to form a planar metal layer; and polishing the metal layer and the barrier metal in a single polishing step using an abrasive-free polish until the dielectric material surrounding the pattern is exposed.

Method of forming a damascene structure with integrated planar dielectric layers

Phase change memories may exhibit improved properties and lower cost in some cases by forming the phase change material layers in a planar configuration. A heater may be provided below the phase change material layers to appropriately heat the material to induce the phase changes. The heater may be coupled to an appropriate conductor.

Forming phase change memories

The present invention relates to a process of forming a phase-change memory. A lower electrode is disposed in a first dielectric film. The lower electrode comprises an upper section and a lower section. The upper section extends beyond the first dielectric film. Resistivity in the upper section is higher than in the lower section. A second dielectric film is disposed over the first dielectric film and has an upper surface that is coplanar with the upper section at an upper surface.

Method to selectively increase the top resistance of the lower programming electrode in a phase-change memory cell and structures obtained thereby

A phase-change memory cell may be formed by selectively depositing the lower electrode in the phase-change memory pore. Thereafter, an adhesion-promoting material may be selectively deposited on the selectively deposited lower electrode and the upper surface surrounding the pore. Through the use of selective deposition techniques, the adhesion-promoting material can be positioned where needed and the lower electrode may be defined in a fashion that may reduce shunting current, reduce device current requirements, and increase dynamic range in some embodiments.

Using selective deposition to form phase-change memory cells

A memory cell may include a phase-change material. Adhesion between the phase-change material and a dielectric or other substrate may be enhanced by using an adhesion enhancing interfacial layer. Conduction past the phase-change material through the interfacial layer may be reduced by providing a discontinuity or other feature that reduces or prevents conduction along said interfacial layer.

Reducing shunts in memories with phase-change material

An electronic assembly is assembled by stacking two or more integrated circuit dies on top of one another. Prior to singulation, an opening is laser-drilled into an upper die, and subsequently filled with a conductive member. The conductive member is located on a lower die and interconnects integrated circuits of the upper and lower dies. Laser-drilling allows for faster throughput when compared to, for example, etching, especially if a small number of openings has to be formed. The opening is laser-drilled from an upper surface of the upper die all the way through the die, which allows for the use of alignment marks on an upper surface of the upper die.

Integrated circuit die and an electronic assembly having a three-dimensional interconnection scheme

An interconnect structure for microelectronic devices indudes a plurality of patterned, spaced apart, substantially co-planar, conductive lines, a first portion of the plurality of conductive lines having a first Intralayer dielectric of a first dielectric constant therebetween, and a second portion of the plurality of conductive lines having a second intralayer dielectric of a second dielectric constant therebetween. By providing in-plane selectability of dielectric constant, in-plane decoupling capacitance, as between power supply nodes, can be increased, while in-plane parasitic capacitance between signal lines can be reduced.

In-plane on-chip decoupling capacitors and method for making same

An apparatus comprising a volume of memory material and a pair of spacedly disposed conductors. An electrode coupled to the volume of memory material and disposed between the volume of memory material and one conductor comprises a first material having a first resistivity value and a second material having a different second resistivity value formed by exposing the first material to a gaseous ambient.

Compositionally modified resistive electrode

The invention relate to a damascene chalcogenide memory cell structure. The damascene chalcogenide memory cell structure is fabricated under conditions that simplify previous process flows. The damascene chalcogenide memory cell structure also prevents volatilization of the chalcogenide memory material.

Metal structure for a phase-change memory device

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Fremont, CA, United States of America

Chien Chiang