Abstract:
Electron-beam (e-beam) based semiconductor device features are disclosed. In a particular aspect, a method includes performing a first lithography process to fabricate a first set of cut pattern features on a semiconductor device. A distance of each feature of the first set of cut pattern features from the feature to an active area is greater than or equal to a threshold distance. The method further includes performing an electron-beam (e-beam) process to fabricate a second cut pattern feature on the semiconductor device. A second distance of the second cut pattern feature from the second cut pattern feature to the active area is less than or equal to the threshold distance.
Abstract:
An electronic device includes a middle-of-line (MOL) stack. The electronic device includes a top local interconnect layer and a contact coupling the top local interconnect layer to a gate of a semiconductor device through a first dielectric layer. The electronic device also includes one or more isolation walls between the contact and the first dielectric layer, wherein the one or more isolation walls include aluminum nitride (AlN).
Abstract:
A semiconductor device includes a die having a via coupling a first interconnect layer to a trench. The semiconductor device also includes a barrier layer on sidewalls and adjacent surfaces of the trench, and on sidewalls of the via. The semiconductor device has a doped conductive layer on a surface of the first interconnect layer. The doped conductive layer extends between the sidewalls of the via. The semiconductor device further includes a conductive material on the barrier layer in both the via and the trench. The conductive material is on the doped conductive layer disposed on the surface of the first interconnect layer.
Abstract:
A semiconductor fin is on a substrate, and extends in a longitudinal direction parallel to the substrate. The fin projects, in a vertical direction, to a fin top at a fin height above the substrate. An embedded fin stressor element is embedded in the fin. The fin stressor element is configured to urge a vertical compression force within the fin, parallel to the vertical direction. Optionally, the semiconductor material includes silicon, and embedded fin stressor element includes silicon dioxide.
Abstract:
A sacrificial cap is grown on an upper surface of a conductor. A dielectric spacer is against a side of the conductor. An upper dielectric side spacer is formed on a sidewall of the sacrificial cap. The sacrificial cap is selectively etched, leaving a cap recess, and the upper dielectric side spacer facing the cap recess. Silicon nitride is filled in the cap recess, to form a center cap and a protective cap having center cap and the upper dielectric spacer.
Abstract:
An integrated circuit (IC) device includes a first nanowire GAA active transistor (810) of a first-type (N-Type) in a first-type region. The first active transistor may have a first-type work function material (824, NWFM) and a low channel dopant concentration in an active portion. The integrated circuit also includes a second nanowire GAA active transistor (810), using the same nanowire channel as the first active transistor. The IC device furthermore includes a first isolation transistor (TIE-OFF 840) of the first-type in the first- type region, sharing the nanowires of the first and second active nanowire GAA transistors. The first isolation transistor (TIE-OFF 840) is arranged between the first and second active transistors and has a workfunction (832 PWFM) opposite to that of the active transistors on the same nanowire. Further active transistors (P-type) may be arranged using parallel nanowires and may have a second-type work function material (834).
Abstract:
A semiconductor device includes a dielectric material and an interconnect structure. The semiconductor device further includes a barrier layer positioned between the dielectric material and the interconnect structure. The barrier layer includes two or more metals. Each metal of the two or more metals of the barrier layer is phase segregated from each other metal of the two or more metals.
Abstract:
An apparatus includes a metal gate, a substrate material, and an oxide layer between the metal gate and the substrate material. The oxide layer includes a hafnium oxide layer contacting the metal gate and a silicon dioxide layer contacting the substrate material and contacting the hafnium oxide layer. The metal gate, the substrate material, and the oxide layer are included in a one-time programmable (OTP) memory device. The OTP memory device includes a transistor. A non-volatile state of the OTP memory device is based on a threshold voltage shift of the OTP memory device.
Abstract:
A method includes forming a first metal layer on source/drain regions of an n-type metal-oxide-semiconductor (NMOS) device and on source/drain regions of a p-type MOS (PMOS) device by chemical vapor deposition (CVD) or non-energetic physical vapor deposition (PVD). The method further includes selectively performing a rapid thermal anneal (RTA) process on the first metal layer after forming the first metal layer.
Abstract:
Methods of fabricating middle of line (MOL) layers and devices including MOL layers. A method in accordance with an aspect of the present disclosure includes depositing a hard mask (500) across active contacts (112) to terminals of semiconductor devices of a semiconductor substrate. Such a method also includes patterning the hard mask to selectively expose some of the active contacts (112-5) and selectively insulate some of the active contacts (112-2). The method also includes depositing a conductive material (1100) on the patterned hard mask and the exposed active contacts to couple the exposed active contacts to each other over an active area of the semiconductor devices.