Abstract: The present invention is a method for forming super steep doping profiles in MOS transistor structures. The method comprises forming a carbon containing layer (110) beneath the gate dielectric (50) and source and drain regions (80) of a MOS transistor. The carbon containing layer (110) will prevent the diffusion of dopants into the region (40) directly beneath the gate dielectric layer (50).

Abstract: A Schottky diode optimizes the on state resistance, the reverse leakage current, and the reverse breakdown voltage of the Schottky diode by forming an insulated control gate over a region that lies between the metal-silicon junction of the Schottky diode and the n+ cathode contact of the Schottky diode.

Abstract: The number of times that a non-volatile memory (NVM) can be programmed and erased is substantially increased by utilizing a localized heating element that anneals the oxide that is damaged by tunneling charge carriers when the NVM is programmed and erased. The program and erase voltages are also reduced when heat from the heating element is applied prior to programming and erasing.

Abstract: The present invention is a method for forming super steep doping profiles in MOS transistor structures. The method comprises forming a carbon containing layer (110) beneath the gate dielectric (50) and source and drain regions (80) of a MOS transistor. The carbon containing layer (110) will prevent the diffusion of dopants into the region (40) directly beneath the gate dielectric layer (50).

Abstract: The number of times that a non-volatile memory (NVM) can be programmed and erased is substantially increased by utilizing a localized heating element that anneals the oxide that is damaged by tunneling charge carriers when the NVM is programmed and erased. The program and erase voltages are also reduced when heat from the heating element is applied prior to programming and erasing.

Abstract: An electrically floating region is formed in the top surface of a semiconductor wafer to implement a radio frequency (RF) blocking structure. The RF blocking structure lies below the metal pads and traces that carry an RF signal in a metal interconnect structure to substantially reduces the attenuation of the RF signal.

Abstract: The present invention is a method for forming super steep doping profiles in MOS transistor structures. The method comprises forming a carbon containing layer (110) beneath the gate dielectric (50) and source and drain regions (80) of a MOS transistor. The carbon containing layer (110) will prevent the diffusion of dopants into the region (40) directly beneath the gate dielectric layer (50).

Abstract: An integrated circuit and method of fabricating the integrated circuit is disclosed. The integrated circuit includes vertical bipolar transistors (30, 50, 60), each having a buried collector region (26?). A carbon-bearing diffusion barrier (28c) is disposed over the buried collector region (26?), to inhibit the diffusion of dopant from the buried collector region (26?) into the overlying epitaxial layer (28). The diffusion barrier (28c) may be formed by incorporating a carbon source into the epitaxial formation of the overlying layer (28), or by ion implantation. In the case of ion implantation of carbon or SiGeC, masks (52, 62) may be used to define the locations of the buried collector regions (26?) that are to receive the carbon; for example, portions underlying eventual collector contacts (33, 44c) may be masked from the carbon implant so that dopant from the buried collector region (26?) can diffuse upward to meet the contact (33).

Abstract: An integrated stacked capacitor comprises a first capacitor film (46) of polycrystalline silicide, a second capacitor film (48) and a first dielectric (26) sandwiched between the first capacitor film (46) and second capacitor film (48). A second dielectric (34) and a third capacitor film (50) are provided. The second dielectric (34) is sandwiched between the second capacitor film (48) and third capacitor film (50). A method for fabrication of an integrated stacked capacitor comprises the following sequence of steps: applying a polysilicide layer (20) to form the first capacitor film (46); applying a first dielectric (26); applying a first metallization layer (28) to form the second capacitor film (48); applying a second dielectric (34); and applying a second metallization layer (44) to form the third capacitor film (50).

Abstract: In accordance with an aspect of the invention, A Schottky junction field effect transistor (JFET) is created using cobalt silicide, or other Schottky material, to form the gate contact of the JFET. The structural concepts can also be applied to a standard JFET that uses N? type or P? type dopants to form the gate of the JFET. In addition, the structures allow for an improved JFET linkup with buried linkup contacts allowing improved noise and reliability performance for both conventional diffusion (N? and P? channel) JFET structures and for Schottky JFET structures. In accordance with another aspect of the invention, the gate poly, as found in a standard CMOS or BiCMOS process flow, is used to perform the linkup between the source and the junction gate and/or between the drain and the junction gate of a junction filed effect transistor (JFET).

Abstract: The present invention is a method for forming super steep doping profiles in MOS transistor structures. The method comprises forming a carbon containing layer (110) beneath the gate dielectric (50) and source and drain regions (80) of a MOS transistor. The carbon containing layer (110) will prevent the diffusion of dopants into the region (40) directly beneath the gate dielectric layer (50).

Abstract: The attenuation of an RF signal on a metal trace in a semiconductor die is substantially reduced by utilizing a number of RF blocking structures that lie on the surface of the substrate directly below the metal trace that carries the RF signal. The RF blocking structures include an isolation ring, and one or more doped regions that are formed inside the isolation ring.

Abstract: The present invention is a method for forming super steep doping profiles in MOS transistor structures. The method comprises forming a carbon containing layer (110) beneath the gate dielectric (50) and source and drain regions (80) of a MOS transistor. The carbon containing layer (110) will prevent the diffusion of dopants into the region (40) directly beneath the gate dielectric layer (50).

Abstract: The present invention is a method for forming super steep doping profiles in MOS transistor structures. The method comprises forming a carbon containing layer (110) beneath the gate dielectric (50) and source and drain regions (80) of a MOS transistor. The carbon containing layer (110) will prevent the diffusion of dopants into the region (40) directly beneath the gate dielectric layer (50).

Abstract: An integrated stacked capacitor comprises a first capacitor film (46) of polycrystalline silicide (poly), a second capacitor film (48) and a first dielectric (26) sandwiched between the first capacitor film (46) and second capacitor film (48). A second dielectric (34) and a third capacitor film (50) are provided. The second dielectric (34) is sandwiched between the second capacitor film (48) and third capacitor film (50). A method for fabrication of an integrated stacked capacitor comprises the following sequence of steps: applying a polysilicide layer (20) to form the first capacitor film (46); applying a first dielectric (26); applying a first metallization layer (28) to form the second capacitor film (48); applying a second dielectric (34); and applying a second metallization layer (34) to form the third capacitor film (50).

Abstract: An integrated circuit programmable structure (60) is formed for use a trim resistor and/or a programmable fuse. The programmable structure comprises placing heating elements (70) in close proximity to the programmable structure (60) to heat the programmable structure (60) during programming.

Abstract: The present invention is a method for forming super steep doping profiles in MOS transistor structures. The method comprises forming a carbon containing layer (110) beneath the gate dielectric (50) and source and drain regions (80) of a MOS transistor. The carbon containing layer (110) will prevent the diffusion of dopants into the region (40) directly beneath the gate dielectric layer (50).

Abstract: An integrated stacked capacitor comprises a first capacitor film (46) of polycrystalline silicide (poly), a second capacitor film (48) and a first dielectric (26) sandwiched between the first capacitor film (46) and second capacitor film (48). A second dielectric (34) and a third capacitor film (50) are provided. The second dielectric (34) is sandwiched between the second capacitor film (48) and third capacitor film (50). A method for fabrication of an integrated stacked capacitor comprises the following sequence of steps: applying a polysilicide layer (20) to form the first capacitor film (46); applying a first dielectric (26); applying a first metallization layer (28) to form the second capacitor film (48); applying a second dielectric (34); and applying a second metallization layer (34) to form the third capacitor film (50).

Abstract: A method of fabricating an epitaxial silicon-germanium layer for an integrated semiconductor device comprises the step of depositing an arsenic in-situ doped silicon-germanium layer, wherein arsenic and germanium are introduced subsequently into different regions of said silicon-germanium layer during deposition of said silicon-germanium layer. By separating arsenic from germanium any interaction between arsenic and germanium is avoided during deposition thereby allowing fabricating silicon-germanium layers with reproducible doping profiles.

Abstract: The present invention is a method for forming super steep doping profiles in MOS transistor structures. The method comprises forming a carbon containing layer (110) beneath the gate dielectric (50) and source and drain regions (80) of a MOS transistor. The carbon containing layer (110) will prevent the diffusion of dopants into the region (40) directly beneath the gate dielectric layer (50).