Honeywell International Inc.

Honeywell G.m.b.h.

Gordon Alan Shaw

Daniel Baseman

Romney R Katti

Paul S Fechner

Daniel Seymour Reed

Lonny L Berg

Eric E Vogt

Chris J Finn

Wei D Z Zou

Jim G Hunter

Robert E Higashi

Todd A Randazzo

Michael S Liu

Andy M Peczalski

Thomas R Keyser

Cheisan J Yue

Curtis H Rahn

Jerry C Yue

David W Zou

Microstructure plating systems and methods are described herein. One method includes depositing a plating-resistant material between a microstructure and a bonding layer, wherein the microstructure comprises a plating process base material and immersing the microstructure in a plating solution.

Microstructure plating systems

Microstructure plating systems and methods

In some examples, a programmable electrical fuse includes at least one structural feature that increases a thermal gradient between an anode and a cathode of the programmable electrical fuse. For example, a device may include a semiconductor substrate, an electrically insulating layer overlying the semiconductor substrate, and a programmable electrical fuse overlying a portion of the electrically insulating layer. The programmable electrical fuse may include a cathode, an anode, and a conductor link connecting the cathode and the anode. The electrically insulating layer may define a first thickness between the semiconductor substrate and the cathode and a second thickness between the semiconductor substrate and the anode, and the first thickness being less than the second thickness.

Programmable electrical fuse with temperature gradient between anode and cathode

A method of forming CMOS circuitry integrated with MEMS devices includes bonding a wafer to a top surface layer having contacts formed to CMOS circuitry. A handle wafer is then removed from one of the top or bottom surfaces of the CMOS circuitry, and MEMS devices are formed in a remaining silicon layer.

Integration of MEMS and CMOS devices on a chip

A method of forming a body-tie. The method includes forming the body-tie during an STI scheme of an SOI process. During the STI scheme, a first trench is formed. The first trench stops before a buried oxide layer of the SOI substrate. The first trench may determine a height of body tie that is shared between at least two FETs. A second trench may also be formed within the first trench. The second trench stops in the SOI substrate. The second trench defines the location and shape of a body-tie. Once the location and shape of the body-tie are defined, an oxide is deposited above the body-tie. The deposited oxide prevents certain implants from entering the body tie. By preventing these implants, a source and a drain implant may be self-aligned to the source and drain areas without requiring the use of the photoresist mask to shield the body tie regions from the source and drain implant.

Method of forming a body-tie

In a method of fabricating a giant magnetoresistive (GMR) device a plurality of magnetoresistive device layers is deposited on a first silicon nitride layer formed on a silicon oxide layer. An etch stop is formed on the magnetoresistive device layers, and a second layer of silicon nitride is formed on the etch stop. The magnetoresistive device layers are patterned to define a plurality of magnetic bits having sidewalls. The second silicon nitride layer is patterned to define electrical contact portions on the etch stop in each magnetic bit. The sidewalls of the magnetic bits are covered with a photoresist layer. A reactive ion etch (RIE) process is used to etch into the first silicon nitride and silicon oxide layers to expose electrical contacts. The photoresist layer and silicon nitride layers protect the magnetoresistive layers from exposure to oxygen during the etching into the silicon oxide layer.

Methods for fabricating giant magnetoresistive (GMR) devices

In a process of making a magnetoresistive memory device, a mask layout is produced by use of any suitable design tool. The mask layout is laid out in grids having a central grid forming a central section and grids forming bit end sections, and the grids of the bit end sections are rectangles. A mask is made by use of the mask layout, and the mask has stepped bit ends. The mask is used to make a magnetic storage layer having tapered bit ends, to make a magnetic sense layer having tapered bit ends, and to make a non-magnetic layer having tapered bit ends. The non-magnetic layer is between the magnetic sense layer and the magnetic storage layer.

Bit end design for pseudo spin valve (PSV) devices

Method for fabricating giant magnetoresistive (GMR) devices

A process for oxidizing the silicon layer into a device-isolating field oxide having a radiation-hardened reduced bird's beak. An angled and rotated field implant prior to oxidation is used to increase the doping concentration in the edge region of the MOS transistors to compensate for boron leaching during oxidation. The field oxide is grown at a low temperature by high pressure oxidation which increases total dose hardness by making a silicon-rich oxide film.

Radiation hardened field oxide for VLSI sub-micron MOS device

A method for fabricating polysilicon resistors of intermediate high value for use as cross-coupling or =ingle event upset (SEU) resistors in memory cells. A thin polysilicon film is implanted with arsenic ions to produce a predetermined resistivity. The thin film is then implanted with fluorine ions to stabilize the grain boundaries and thereby the barrier height. Reducing the variation in barrier height from run to run of wafers allows the fabrication of reproducible SEU resistors.

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Plymouth, MN, United States of America

Gordon Alan Shaw