Abstract: Methods and apparatus for providing messages, such as a recommendation, to one or more recipients may include receiving a message intended for one or more recipients. The methods and apparatus may further include determining the format of the message along with forwarding information for the one or more recipients. The methods and apparatus may also include forwarding the message to the one or more recipients based upon the forwarding information.

Abstract: Methods and associated structures of forming a microelectronic device are described. Those methods may include forming a source/drain region in an NMOS portion of a substrate, wherein the source/drain region of the NMOS portion comprises at least one dislocation, and wherein a PMOS source/drain region in a PMOS portion of the substrate does not comprise a dislocation.

Abstract: Methods and associated structures of forming a microelectronic device are described. Those methods may include forming a source/drain region in an NMOS portion of a substrate, wherein the source/drain region of the NMOS portion comprises at least one dislocation, and wherein a PMOS source/drain region in a PMOS portion of the substrate does not comprise a dislocation.

Abstract: Methods and associated structures of forming a microelectronic device are described. Those methods may include forming a source/drain region in an NMOS portion of a substrate, wherein the source/drain region of the NMOS portion comprises at least one dislocation, and wherein a PMOS source/drain region in a PMOS portion of the substrate does not comprise a dislocation.

Abstract: Methods and apparatuses to selectively deposit a dielectric on a self-assembled monolayer (“SAM”) adsorbed metal are described. A wafer includes a device having a first electrode. A first self-assembled monolayer is deposited on the wafer covering the first electrode. Next, a portion of the first self-assembled monolayer is removed to expose the first electrode. The first self-assembled monolayer includes a hydrophobic layer. Further, second self-assembled monolayer is deposited on the first electrode. The second self-assembled monolayer includes a hydrophilic layer. Next, an insulating layer is deposited on the second self-assembled monolayer. Further, self-aligned contacts to one or more second electrodes of the device are formed.

Abstract: Methods and associated structures of forming a microelectronic device are described. Those methods may include forming a source/drain region in an NMOS portion of a substrate, wherein the source/drain region of the NMOS portion comprises at least one dislocation, and wherein a PMOS source/drain region in a PMOS portion of the substrate does not comprise a dislocation.

Abstract: A semiconductor device and a method to fabricate a semiconductor device on a silicon substrate are illustrated. The semiconductor may comprise an amorphous silicon film, in the source/drain region of a semiconductor, having low amount of hydrogen and high concentration of carbon and phosphorous, which enhances performance of the semiconductor device.

Abstract: Methods and apparatuses to selectively deposit a dielectric on a self-assembled monolayer (“SAM”) adsorbed metal are described. A wafer includes a device having a first electrode. A first self-assembled monolayer is deposited on the wafer covering the first electrode. Next, a portion of the first self-assembled monolayer is removed to expose the first electrode. The first self-assembled monolayer includes a hydrophobic layer. Further, second self-assembled monolayer is deposited on the first electrode. The second self-assembled monolayer includes a hydrophilic layer. Next, an insulating layer is deposited on the second self-assembled monolayer. Further, self-aligned contacts to one or more second electrodes of the device are formed.

Abstract: The performance of NMOS and PMOS regions of integrated circuits is improved. Embodiments of the invention include forming a first dielectric layer optimized for n-doped regions over the n-doped regions and forming a second dielectric layer optimized for p-doped regions over p-doped regions.