Abstract:
A wimpy finFET device and method for fabricating the same is described. The device is fabricated by forming a mandrel that is non-perpendicular to long axes of the underlying fin(s) (i.e., the mandrel is formed at a non-quadrantal angle with respect to the long axes). Spacers formed on the sidewalls of the angled mandrel are thus also formed non-perpendicular to the long axes. The spacers are used to pattern underlying layer(s) down to the underlying fin(s) to form the gates for the device. Because the patterned layer(s) are also formed at a non-quadrantal angle, the width of the patterned layer(s) over the underlying fin(s) is greater than would be if the patterned layer(s) were formed at, e.g., a right angle with respect to the long axis. The desired gate length and gate pitch is respectively achieved by determining the angle at which the mandrel is formed and the mandrel width.
Abstract:
A programmable cell includes a semiconductor-on-insulator substrate, a program gate, and a word line gate. The semiconductor-on-insulator substrate includes a semiconductor layer. The semiconductor layer includes a first doped source/drain region, a second doped source/drain region and a region comprising germanium. The program gate is disposed above the region comprising germanium and includes a first gate dielectric layer disposed below a gate conductor. The word line gate is disposed between the first doped source/drain region and the second doped source/drain region.
Abstract:
Semiconductor devices are provided that use both silicon on insulator region and bulk region of a fully depleted silicon on insulator (FDSOI) device. For example, a semiconductor device includes a drain region that is disposed above a first type well and a first drain extension region that is disposed above the first type well and laterally spaced apart from the drain region. The semiconductor device further includes a second drain extension region that is disposed above the first type well and is laterally spaced apart from the drain region and the first drain extension region. The semiconductor device further includes a source region disposed above a second type well and laterally spaced apart from the second drain extension.
Abstract:
An integrated circuit is described as having one or more contact regions to provide one or more interconnections between one or more transistors of the integrated circuit and another integrated circuit. The one or more contact regions represent a self-aligned contact (SAC) whose positioning is determined through one or more patterning processes of a semiconductor fabrication process. The one or more contact regions include one or more contact discontinuities to allow the integrated circuit to accommodate for a wide range of the manufacturing variations and/or the misalignment tolerances by preventing the one or more contact regions from physically contacting other regions, such as gate regions to provide an example, of the one or more transistors. As such, the one or more contact discontinuities have a dynamic size, such as a dynamic area to provide an example, which is dependent upon the manufacturing variations and/or the misalignment tolerances.
Abstract:
A three dimensional monolithic LDMOS transistor implements a drain structure vertically disposed above a level of the structure that includes a drain connection of the transistor. Displacing the drain structure vertically, out of the plane or level of the gate and source/drain connections, creates a three dimensional structure for the transistor. One result is that the transistor consumes far less lateral area on the substrate. The reduction in lateral area in turn provides benefits such as allowing transistors to be more densely arranged on the substrate and allowing additional devices of other types to be formed on the substrate.