Abstract:
An improved thin film inductor design is described. A spiral geometry is used to which has been added a core of high permeability material located at the center of the spiral. If the high permeability material is a conductor, care must be taken to avoid any contact between the core and the spiral. If a dielectric ferromagnetic material is used, this constraint is removed from the design. Several other embodiments are shown in which, in addition to the high permeability core, provide low reluctance paths for the structure. In one case this takes the form of a frame of ferromagnetic material surrounding the spiral while in a second case it has the form of a hollow square located directly above the spiral.
Abstract:
Within a method for fabricating a microelectronic fabrication there is first provided a substrate. There is then formed over the substrate a microelectronic device. There is then formed over the microelectronic device a passivating dielectric layer formed from a passivating dielectric material selected from the group consisting of fluorosilicate glass (FSG) passivating dielectric materials, atmospheric pressure chemical vapor deposited (APCVD) passivating dielectric materials, subatmospheric pressure chemical vapor deposited (SACVD) passivating dielectric materials and spin-on-glass (SOG) passivating dielectric materials to form from the microelectronic device a passivated microelectronic device. Finally, there is then annealed thermally, while employing a thermal annealing method employing an atmosphere comprising hydrogen, the passivated microelectronic device to form a stabilized passivated microelectronic device. The method is a “pure H2 (100%)” alloy recipe to use after contact opening or metal-1 formation.
Abstract:
This invention relates to the characterization of integrated circuit devices and more particularly to an improved method for monitoring for unacceptable kink behavior, in the threshold voltage characteristics of FET devices, that can be caused by a tendency for reduced gate oxide thickness and reduced substrate doping concentration, along the length of channel regions bounded by STI. This is achieved by comparing a pair of drain current versus gate voltage characteristics, as a function of two values of substrate voltage. Relative voltage shifts between the two curves are compared at a value of drain current that is well below the kink and at a value of drain current that is well above the kink. The quantitative degree of kink behavior is determined by how much greater the voltage shift, corresponding to the value of drain current well above the kink, exceeds the voltage shift, corresponding to the value of drain current well below the kink.