Abstract:
An integrated circuit includes a logic circuit and a memory cell. The logic circuit includes a P-channel transistor, and the memory cell includes a P-channel transistor. The P-channel transistor of the logic circuit includes a channel region. The channel region has a portion located along a sidewall of a semiconductor structure having a surface orientation of (110). The portion of the channel region located along the sidewall has a first vertical dimension that is greater than a vertical dimension of any portion of the channel region of the P-channel transistor of the memory cell located along a sidewall of a semiconductor structure having a surface orientation of (110).
Abstract:
A process for forming an electronic device can include forming a semiconductor fin of a first height for a fin-type structure and removing a portion of the semiconductor fin such that the semiconductor fin is shortened to a second height. In accordance with specific embodiment a second semiconductor fin can be formed, each of the first and the second semiconductor fins having a different height representing a channel width. In accordance with another specific embodiment a second and a third semiconductor fin can be formed, each of the first, the second and the third semiconductor fins having a different height representing a channel width.
Abstract:
A method for creating a vertical double-gate transistor design includes providing a planar transistor layout (10) having a gate layer (12) overlying an active layer (14). In one embodiment, a first intermediate layer (18) is defined based on an overlapping region of the gate and active layers, and, using the first intermediate layer, a second intermediate layer (22) is defined which defines a spacing between at least two fins of the vertical double-gate transistor design. The second intermediate layer may also define a length and a width of the at least two fins. One embodiment modifies a dimension of the first intermediate layer prior to defining the second intermediate layer. The method further includes defining a resulting layer (24) based on a non-overlapping region of the second intermediate layer and the active layer. The resulting layer may then be used to create a mask and a semiconductor device (30) corresponding to the vertical double-gate transistor design.
Abstract:
A method for making a semiconductor device is provided. The method includes forming a first transistor with a vertical active region and a horizontal active region extending on both sides of the vertical active region. The method further includes forming a second transistor with a vertical active region. The method further includes forming a third transistor with a vertical active region and a horizontal active region extending on only one side of the vertical active region.
Abstract:
A method for forming a phase change memory cell (PCM) includes forming a heater for the phase change memory and forming a phase change structure electrically coupled to the heater. The forming a heater includes siliciding a material including silicon to form a silicide structure, wherein the heater includes at least a portion of the silicide structure. The phase change structure exhibits a first resistive value when in a first phase state and exhibits a second resistive value when in a second phase state. The silicide structure produces heat when current flows through the silicide structure for changing the phase state of the phase change structure.
Abstract:
A method of forming an electronic device can include forming a metallic layer by an electrochemical process over a side of a substrate that includes a semiconductor material. The method can also include introducing a separation-enhancing species into the substrate at a distance from the side, and separating a semiconductor layer and the metallic layer from the substrate, wherein the semiconductor layer is a portion of the substrate. In a particular embodiment, the separation-enhancing species can be incorporated into a metallic layer and moved into the substrate, and in particular embodiment, the separation-enhancing species can be implanted into the substrate. In still another embodiment, both the techniques can be used. In a further embodiment, a dual-sided process can be performed.
Abstract:
A process for forming an electronic device can include forming a semiconductor fin of a first height for a fin-type structure and removing a portion of the semiconductor fin such that the semiconductor fin is shortened to a second height. In accordance with specific embodiment a second semiconductor fin can be formed, each of the first and the second semiconductor fins having a different height representing a channel width. In accordance with another specific embodiment a second and a third semiconductor fin can be formed, each of the first, the second and the third semiconductor fins having a different height representing a channel width.
Abstract:
An electronic device can include a gated diode, wherein the gated diode includes a junction diode structure including a junction. A first conductive member spaced apart from and adjacent to the junction can be connected to a first signal line. A second conductive member, spaced apart from and adjacent to the junction, can be both electrically connected to a second signal line and electrically insulated from the first conductive member. The junction diode structure can include a p-n or a p-i-n junction. A process for forming the electronic device is also described.
Abstract:
A rail clamp circuit (100) includes first and second power supply voltage rails, a multiple independent gate field effect transistor (MIGFET) (128), and an ESD event detector circuit (138). The MIGFET (128) has a source/drain path coupled between the first (112) and second (114) power supply voltage rails, and first and second gates. The ESD event detector circuit (138) is coupled between the first (112) and second (114) power supply voltage rails, and has first and second output terminals respectively coupled to the first and second gates of the MIGFET. In response to an electrostatic discharge (ESD) event between the first (112) and second (114) power supply voltage rails, the ESD event detector circuit (138) provides a voltage to the second gate to lower an absolute threshold voltage of the MIGFET (128) while providing a voltage to the first gate above the absolute threshold voltage so lowered, thereby making the MIGFET (128) conductive with relatively high conductivity.
Abstract:
A method for making a semiconductor device includes patterning a semiconductor layer, overlying an insulator layer, to create a first active region and a second active region, wherein the first active region is of a different height from the second active region, and wherein at least a portion of the first active region has a first conductivity type and at least a portion of the second active region has a second conductivity type different from the first conductivity type in at least a channel region of the semiconductor device. The method further includes forming a gate structure over at least a portion of the first active region and the second active region. The method further includes removing a portion of the second active region on one side of the semiconductor device.