Abstract:
In one embodiment, a conductive connector for a microelectronic component may be formed with a noble metal layer, acting as an adhesion/wetting layer, disposed between a barrier liner and a conductive fill material. In a further embodiment, the conductive connector may have a noble metal conductive fill material disposed directly on the barrier liner. The use of a noble metal as an adhesion/wetting layer or as a conductive fill material may improve gapfill and adhesion, which may result in the conductive connector being substantially free of voids, thereby improving the electrical performance of the conductive connector relative to conductive connectors without a noble metal as the adhesion/wetting layer or the conductive fill material.
Abstract:
The present description relates to the field of fabricating microelectronic devices having non-planar transistors. Embodiments of the present description relate to the formation of gates within non-planar NMOS transistors, wherein an NMOS work-function material, such as a composition of aluminum, titanium, and carbon, may be used in conjunction with a titanium-containing gate fill barrier to facilitate the use of a tungsten-containing conductive material in the formation of a gate electrode of the non-planar NMOS transistor gate.
Abstract:
A combat tactical modular vehicle structure 10 including a center frame module 11 comprising a front bulkhead 16, a cab portion 14, and a rear bulkhead 17 where the center frame module 11 includes an integrated armor so that the integrated armor is a part of center frame module 11 or the center frame module 11 has at least one piece of armor attached to the center frame module 11, a front frame module 12 comprising an engine subframe where the front frame module 12 is connected to the front bulkhead 16 by a plurality of mechanical coupling devices, and a rear frame module 13 comprising a gearbox subframe where the rear frame module 13 is connected to the rear bulkhead 17 by the plurality of mechanical coupling devices for selectively connecting and disconnecting the front frame module 12 to the front bulkhead 16 without substantially affecting the connection and the rear frame module 13 to the rear bulkhead 17 without substantially affecting the connection.
Abstract:
Material layer stack structures to provide a magnetic tunnel junction (MTJ) having improved perpendicular magnetic anisotropy (PMA) characteristics. In an embodiment, a free magnetic layer of the material layer stack is disposed between a tunnel barrier layer and a cap layer of magnesium oxide (Mg). The free magnetic layer includes a Cobalt-Iron-Boron (CoFeB) body substantially comprised of a combination of Cobalt atoms, Iron atoms and Boron atoms. A first Boron mass fraction of the CoFeB body is equal to or more than 25% (e.g., equal to or more than 27%) in a first region which adjoins an interface of the free magnetic layer with the tunnel barrier layer. In another embodiment, the first Boron mass fraction is more than a second Boron mass fraction in a second region of the CoFeB body which adjoins an interface of the free magnetic layer with the cap layer.
Abstract:
Embodiments of the disclosure are directed to a magnetic tunneling junction (MTJ) that includes a diffusion barrier. The diffusion barrier can be disposed between two ferromagnetic layers of the MTJ. More specifically, the diffusion barrier can be disposed between a first ferromagnetic layer, which is adjacent to a natural antiferromagnetic layer, and a second ferromagnetic layer; the first and second ferromagnetic layers and the diffusion barrier being part of a synthetic antiferromagnet. The diffusion barrier can be made of a refractory metal, such as tantalum. The diffusion barrier acts as a barrier for manganese diffusion from the natural antiferromagnetic layer into the synthetic antiferromagnet and other higher layers of the MTJ.
Abstract:
An aspect of the present disclosure relates to a method of forming a barrier layer on a semiconductor device. The method includes placing a substrate into a reaction chamber and depositing a barrier layer over the substrate. The barrier layer includes a metal and a non-metal and the barrier layer exhibits an as-deposited thickness of 4 nm or less. The method further includes densifying the barrier layer by forming plasma from a gas proximate to said barrier layer and reducing the thickness and increasing the density of the barrier layer. In embodiments, during densification 300 Watts or less of power is applied to the plasma at a frequency of 350 kHz to 40 MHz.
Abstract:
Technologies for selectively etching oxide and nitride materials on a work piece are described. Such technologies include methods for etching a work piece with a remote plasma that is produced by igniting a plasma gas flow. By controlling the flow rate of various components of the plasma gas flow, plasmas exhibiting desired etching characteristics may be obtained. Such plasmas may be used in single or multistep etching operations, such as recess etching operations that may be used in the production of non-planar microelectronic devices.
Abstract:
Techniques and methods related to forming a wrap-around contact on a semiconductor device, and apparatus, system, and mobile platform incorporating such semiconductor devices.