Abstract: An adsorbent bed, including at least one elementary composite structure that includes adsorbent particles in a polymer matrix, wherein the adsorbent bed has a bed packing, ?bed, defined as a volume occupied by the at least one elementary composite structure Vecs divided by a volume of the adsorbent bed Vbed where ?bed is greater than 0.60.

Abstract: An adsorbent bed, including at least one elementary composite structure that includes adsorbent particles in a polymer matrix, wherein the adsorbent bed has a bed packing, ?bed, defined as a volume occupied by the at least one elementary composite structure Vecs divided by a volume of the adsorbent bed Vbed where ?bed is greater than 0.60.

Abstract: Embodiments herein describe techniques for a three dimensional transistor above a substrate. A three dimensional transistor includes a channel structure, where the channel structure includes a channel material and has a source area, a drain area, and a channel area between the source area and the drain area. A source electrode is coupled to the source area, a drain electrode is coupled to the drain area, and a gate electrode is around the channel area. An electrode selected from the source electrode, the drain electrode, or the gate electrode is in contact with the channel material on a sidewall of an opening in an inter-level dielectric layer or a surface of the electrode. The electrode is further in contact with the channel structure including the source area, the drain area, or the channel area. Other embodiments may be described and/or claimed.

Abstract: In memory devices where a memory cell includes a thin film cell select transistor, selection between layers of such memory cells may further comprise another thin film select transistor. Bitline and wordline encoding suitable for a memory device having a single layer of memory cells may be scaled up to a 3D memory device having two or more memory cell layers. In a DRAM device one layer of (1TFT-1C) cells may include a 2D array of metal-insulator-metal capacitors over an array of TFTs. Additional layers of such 1TFT-1C cells may be stacked monolithically to form a 3D array. Memory cells in each layer may be accessed through a wordline and local bitline. A local bitline of one cell layer may be coupled to global bitline applicable to all cell layers through a layer-selected TFT according to a voltage applied to a layer-select gate voltage.

Abstract: Described is a transistor which includes: a source region; a drain region; and a gate region between the source and drain regions, wherein the gate region comprises: high-K dielectric material between spacers such that the high-K dielectric material is recessed; and metal electrode on the recessed high-K dielectric material. The gate recessed gate dielectric allows for using thick gate dielectric even with much advanced process technology nodes (e.g., 7 nm and below).

Abstract: Semiconductor devices, computing devices, and related methods are disclosed herein. A semiconductor device includes a seed material, an epitaxial material in contact with the seed material, and at least one quantum region including an elastic stiffness that is greater than an elastic stiffness of the epitaxial material. The epitaxial material has lattice parameters that are different from lattice parameters of the seed material by at least a threshold amount. Lattice parameters of the quantum region are within the threshold amount of the lattice parameters of the epitaxial material. A method includes disposing an epitaxial material on a seed material, disposing a quantum region on the epitaxial material, and disposing the epitaxial material on the quantum region.

Abstract: Tunneling Field Effect Transistors (TFETs) are promising devices in that they promise significant performance increase and energy consumption decrease due to a steeper subthreshold slope (for example, smaller sub-threshold swing). In various embodiments, vertical fin-based TFETs can be fabricated in trenches, for example, silicon trenches. In another embodiment, vertical TFETs can be used on different material systems acting as a substrate and/or trenches (for example, Si, Ge, III-V semiconductors, GaN, and the like). In one embodiment, the tunneling direction in the channel of the vertical TFET can be perpendicular to the Si substrates. In one embodiment, this can be different than the tunneling direction in the channel of lateral TFETs.

Abstract: Techniques and mechanisms for providing electrical insulation or other protection of an integrated circuit (IC) device with a spacer structure which comprises an (anti)ferromagnetic material. In an embodiment, a transistor comprises doped source or drain regions and a channel region which are each disposed in a fin structure, wherein a gate electrode and an underlying dielectric layer of the transistor each extend over the channel region. Insulation spacers are disposed on opposite sides of the gate electrode, where at least a portion of one such insulation spacer comprises an (anti)ferroelectric material. Another portion of the insulation spacer comprises a non-(anti)ferroelectric material. In another embodiment, the two portions of the spacer are offset vertically from one another, wherein the (anti)ferroelectric portion forms a bottom of the spacer.

Abstract: Techniques and mechanisms to provide electrical insulation between a gate and a channel region of a non-planar circuit device. In an embodiment, the gate structure, and insulation spacers at opposite respective sides of the gate structure, each extend over a semiconductor fin structure. In a region between the insulation spacers, a first dielectric layer extends conformally over the fin, and a second dielectric layer adjoins and extends conformally over the first dielectric layer. A third dielectric layer, adjoining the second dielectric layer and the insulation spacers, extends under the gate structure. Of the first, second and third dielectric layers, the third dielectric layer is conformal to respective sidewalls of the insulation spacers. In another embodiment, the second dielectric layer is of dielectric constant which is greater than that of the first dielectric layer, and equal to or less than that of the third dielectric layer.

Abstract: Architectures and techniques for co-integration of heterogeneous materials, such as group III-V semiconductor materials and group IV semiconductors (e.g., Ge) on a same substrate (e.g. silicon). In embodiments, multi-layer heterogeneous semiconductor material stacks having alternating nanowire and sacrificial layers are employed to release nanowires and permit formation of a coaxial gate structure that completely surrounds a channel region of the nanowire transistor. In embodiments, individual PMOS and NMOS channel semiconductor materials are co-integrated with a starting substrate having a blanket layers of alternating Ge/III-V layers. In embodiments, vertical integration of a plurality of stacked nanowires within an individual PMOS and individual NMOS device enable significant drive current for a given layout area.

Abstract: An interlayer is used to reduce Fermi-level pinning phenomena in a semiconductive device with a semiconductive substrate. The interlayer may be a rare-earth oxide. The interlayer may be an ionic semiconductor. A metallic barrier film may be disposed between the interlayer and a metallic coupling. The interlayer may be a thermal-process combination of the metallic barrier film and the semiconductive substrate. A process of forming the interlayer may include grading the interlayer. A computing system includes the interlayer.

Abstract: An integrated circuit with at least one transistor is formed using a buffer structure on the substrate. The buffer structure includes one or more layers of buffer material and comprises indium, gallium, and phosphorous. A ratio of indium to gallium in the buffer structure increases from a lower value to a higher value such that the buffer structure has small changes in lattice constant to control relaxation and defects. A source and a drain are on top of the buffer structure and a body of Group III-V semiconductor material extends between and connects the source and the drain. A gate structure wrapped around the body, the gate structure including a gate electrode and a gate dielectric, wherein the gate dielectric is between the body and the gate electrode.

Abstract: Embodiments herein describe techniques for a thin-film transistor (TFT), which may include a substrate oriented in a horizontal direction and a transistor above the substrate. The transistor includes a gate electrode above the substrate, a gate dielectric layer around the gate electrode, and a channel layer around the gate dielectric layer, all oriented in a vertical direction substantially orthogonal to the horizontal direction. Furthermore, a source electrode or a drain electrode is above or below the channel layer, separated from the gate electrode, and in contact with a portion of the channel layer. Other embodiments may be described and/or claimed.

Abstract: Embodiments herein describe techniques for a semiconductor device including a substrate and a transistor above the substrate. The transistor includes a channel layer above the substrate, a conductive contact stack above the substrate and in contact with the channel layer, and a gate electrode separated from the channel layer by a gate dielectric layer. The conductive contact stack may be a drain electrode or a source electrode. In detail, the conductive contact stack includes at least a metal layer, and at least a metal sealant layer to reduce hydrogen diffused into the channel layer through the conductive contact stack. Other embodiments may be described and/or claimed.

Abstract: Embodiments herein describe techniques for a thin-film transistor (TFT) above a substrate. The transistor includes a contact electrode having a conductive material above the substrate, an epitaxial layer above the contact electrode, and a channel layer including a channel material above the epitaxial layer and above the contact electrode. The channel layer is in contact at least partially with the epitaxial layer. A conduction band of the channel material and a conduction band of a material of the epitaxial layer are substantially aligned with an energy level of the conductive material of the contact electrode. A bandgap of the material of the epitaxial layer is smaller than a bandgap of the channel material. Furthermore, a gate electrode is above the channel layer, and separated from the channel layer by a gate dielectric layer. Other embodiments may be described and/or claimed.

Abstract: A group III-N nanowire is disposed on a substrate. A longitudinal length of the nanowire is defined into a channel region of a first group III-N material, a source region electrically coupled with a first end of the channel region, and a drain region electrically coupled with a second end of the channel region. A second group III-N material on the first group III-N material serves as a charge inducing layer, and/or barrier layer on surfaces of nanowire. A gate insulator and/or gate conductor coaxially wraps completely around the nanowire within the channel region. Drain and source contacts may similarly coaxially wrap completely around the drain and source regions.

Abstract: Embodiments herein describe techniques, systems, and method for a semiconductor device. Embodiments herein may present a semiconductor device having a channel area including a channel III-V material, and a source area including a first portion and a second portion of the source area. The first portion of the source area includes a first III-V material, and the second portion of the source area includes a second III-V material. The channel III-V material, the first III-V material and the second III-V material may have a same lattice constant. Moreover, the first III-V material has a first bandgap, and the second III-V material has a second bandgap, the channel III-V material has a channel III-V material bandgap, where the channel material bandgap, the second bandgap, and the first bandgap form a monotonic sequence of bandgaps. Other embodiments may be described and/or claimed.

Abstract: Embodiments herein describe techniques, systems, and method for a semiconductor device. A semiconductor device may include isolation areas above a substrate to form a trench between the isolation areas. A first buffer layer is over the substrate, in contact with the substrate, and within the trench. A second buffer layer is within the trench over the first buffer layer, and in contact with the first buffer layer. A channel area is above the first buffer layer, above a portion of the second buffer layer that are below a source area or a drain area, and without being vertically above a portion of the second buffer layer. In addition, the source area or the drain area is above the second buffer layer, in contact with the second buffer layer, and adjacent to the channel area. Other embodiments may be described and/or claimed.

Abstract: Embodiments of the present disclosure are contact structures for thin film transistor (TFT) devices. One embodiment is a TFT device comprising: a substrate; a gate formed above the substrate; a TFT channel formed above the substrate; and a pair of contacts formed on the TFT channel, wherein each of the contacts comprises one or more layers including: a metal that is non-reactive with a material of the TFT channel; or a plurality of layers including a first metal layer formed on a second layer, the second layer in contact with the TFT channel and between the first mater layer and the TFT channel. Other embodiments may be disclosed and/or claimed.

Abstract: Embodiments herein describe techniques, systems, and method for a semiconductor device. Embodiments herein may present a semiconductor device including a substrate and an insulator layer above the substrate. A channel area may include an III-V material relaxed grown on the insulator layer. A source area may be above the insulator layer, in contact with the insulator layer, and adjacent to a first end of the channel area. A drain area may be above the insulator layer, in contact with the insulator layer, and adjacent to a second end of the channel area that is opposite to the first end of the channel area. The source area or the drain area may include one or more seed components including a seed material with free surface. Other embodiments may be described and/or claimed.