Abstract:
In one exemplary embodiment of the invention, an asymmetric P-type field effect transistor includes: a source region coupled to a drain region via a channel; a gate structure overlying at least a portion of the channel; a halo implant disposed at least partially in the channel, where the halo implant is disposed closer to the source region than the drain region; and a body-tie coupled to the channel. In a further exemplary embodiment, the asymmetric P-type field effect transistor is operable to act as a symmetric P-type field effect transistor.
Abstract:
In one exemplary embodiment of the invention, an asymmetric N-type field effect transistor includes: a source region coupled to a drain region via a channel; a gate structure overlying at least a portion of the channel; a halo implant disposed at least partially in the channel, where the halo implant is disposed closer to the source region than the drain region; and a body-tie coupled to the channel. In a further exemplary embodiment, the asymmetric N-type field effect transistor is operable to act as a symmetric N-type field effect transistor.
Abstract:
The present invention provides a 6T-SRAM semiconductintg structure including a substrate having an SOI region and a bulk-Si region, wherein the SOI region and the bulk-Si region have a same or differing crystallographic orientation; an isolation region separating the SOI region from the bulk Si-region; and at least one first device located in the SOI region and at least one second device located in the bulk-Si region. The SOI region has a silicon layer atop an insulating layer. The bulk-Si region further comprises a well region underlying the second device and a contact to the well region, wherein the contact stabilizes floating body effects. The well contact is also used to control the threshold voltages of the FETs in the bulk-Si region to optimized the power and performance of the SRAM cell built from the combination of the SOI and bulk-Si region FETs.
Abstract:
PROBLEM TO BE SOLVED: To provide a memory device used particularly for an associative memory, a method for operating the associative memory, and a system including the associative memory. SOLUTION: The memory device for storing one or a plurality of addresses includes a coincidence line and first and second memory cells forming a two-bit memory cell. Each memory cell includes two memory elements connected to the coincidence line, and a selection line connected there. The selection line provides a signal expression of logical combinations of at least two different inputs. COPYRIGHT: (C)2011,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To mount a body contact on a semiconductor-on-insulator device, thereby reducing parasitic capacitance in the device. SOLUTION: A substrate includes a semiconductor layer arranged so as to be covered on an insulating layer. The semiconductor layer includes the substrate including a semiconductor body and an separation region existing around the outer periphery of the semiconductor body, and a gate structure covered on the semiconductor layer of the substrate. A method for manufacturing a semiconductor device is provided. The semiconductor device includes the gate structure existing on a first part of an upper face of the semiconductor body and a silicide body contact directly physically brought into contact with a second part of the semiconductor body separated from the first part of the semiconductor body by a non-silicide semiconductor region. COPYRIGHT: (C)2011,JPO&INPIT
Abstract:
The present invention provides a 6T-SRAM semiconductintg structure including a substrate having an SOI region and a bulk-Si region, wherein the SOI region and the bulk-Si region have a same or differing crystallographic orientation; an isolation region separating the SOI region from the bulk Si-region; and at least one first device located in the SOI region and at least one second device located in the bulk-Si region. The SOI region has a silicon layer atop an insulating layer. The bulk-Si region further comprises a well region underlying the second device and a contact to the well region, wherein the contact stabilizes floating body effects. The well contact is also used to control the threshold voltages of the FETs in the bulk-Si region to optimized the power and performance of the SRAM cell built from the combination of the SOI and bulk-Si region FETs.
Abstract:
Structure and method for fabricating a barrier layer that separates an electromechanical device and a CMOS device on a substrate. An example structure includes a protective layer encapsulating the electromechanical device, where the barrier layer may withstand an etch process capable of removing the protective layer, but not the barrier layer. The substrate may be silicon-on-insulator or a multilayer wafer substrate. The electromechanical device may be a microelectromechanical system (MEMS) or a nanoelectromechanical system (NEMS).
Abstract:
A static random access memory fabrication method includes forming a gate stack on a substrate, forming isolating spacers adjacent the gate stack, the isolating spacers and gate stack having a gate length, forming a source and drain region adjacent the gate stack, which generates an effective gate length, wherein the source and drain regions are formed from a low extension dose implant that varies a difference between the gate length and the effective gate length.
Abstract:
In one exemplary embodiment of the invention, an asymmetric N-type field effect transistor includes: a source region coupled to a drain region via a channel; a gate structure overlying at least a portion of the channel; a halo implant disposed at least partially in the channel, where the halo implant is disposed closer to the source region than the drain region; and a body-tie coupled to the channel. In a further exemplary embodiment, the asymmetric N-type field effect transistor is operable to act as a symmetric N-type field effect transistor.