Abstract:
Erläutert wird unter anderem ein Verfahren zum Herstellen eines Tunnel-Feldeffekttransistors (T1). Anschlussbereiche (28, 80) von verschiedenem Dotiertyp werden mit selbstausrichtenden Implantationsverfahren erzeugt.
Abstract:
An electronic structure comprising: (a) a first metal layer; (b) a second metal layer; (c) and at least one insulator layer located between the first metal layer and the second metal layer, wherein at least one of the metal layers comprises an amorphous multi-component metallic film. In certain embodiments, the construct is a metal-insulator-metal (MIM) diode. In other embodiments, the construct is a amorphous multi-component metallic thin film nanolaminate.
Abstract:
The invention inter alia relates to a method for producing a tunnel field-effect transistor (T1). The inventive method is characterized by producing differently doped connecting areas (28, 80) by means of self-aligned implantation methods.
Abstract:
A detector (10A) for detecting electromagnetic radiation incident thereon over a desired range of frequencies exhibits a given responsivity and includes an output and first and second non-insulating layers (14), which layers are spaced apart such that a given voltage can be applied thereacross. The first non-insulating layer (12) is formed of a metal, and the first and second non-insulating layers are configured to form an antenna structure for receiving electromagnetic radiation over the desired range of frequencies. The detector further includes an arrangement disposed between the first and second non-insulating layers and configured to serve as a transport of electrons between the first and second non-insulating layers as a result of the electromagnetic radiation being received at the antenna structure. The arrangement includes at least a first layer of an amorphous material (16) such that the transport of electrons includes, at least in part, transport by means of resonant tunneling, and such that at least a portion of the electromagnetic radiation incident on the antenna is converted at the output to an electrical signal having an intensity which depends on the given responsivity.
Abstract:
A gate tunable diode is provided. The gate tunable diode includes a gate dielectric formed on a gate electrode and a graphene electrode formed on the gate dielectric. Also, the gate tunable diode includes a tunnel dielectric formed on the graphene electrode and a tunnel electrode formed on the tunnel dielectric.
Abstract:
A method and structure are provided for a high performance heterojunction bipolar transistor which is suited to compound semiconductor systems such as gallium arsenide (GaAs) and which utilises an emitter junction formed from a plurality of metal layers and a plurality of ultra-thin insulating layers. The metal layers chosen have work functions which form a tunnelling Metal-Insulator-Semiconductor Junction when deposited on top of an ultra-thin insulating layer. The insulating layer may be made from a rare-earth oxide such as gadolinium oxide (Gd2O3) which is epitaxially grown on a compound semiconductor substrate and possibly covered with a second ultra-thin insulating layer.
Abstract:
A detector for detecting electromagnetic radiation incident thereon over a desired range of frequencies exhibits a given responsivity and includes an output and first and second non-insulating layers, which layers are spaced apart such that a given voltage can be applied there across. The first non-insulating layer is formed of a metal, and the first and second non-insulating layers are configured to form an antenna structure for receiving electromagnetic radiation over the desired range of frequencies. The detector further includes an arrangement disposed between the first and second non-insulating layers and configured to serve as a transport of electrons between the first and second non-insulating layers as a result of the electromagnetic radiation being received at the antenna structure. The arrangement includes at least a first layer of an amorphous material such that the transport of electrons includes, at least in part, transport by means of resonant tunneling, and such that at least a portion of the electromagnetic radiation incident on the antenna is converted at the output to an electrical signal having an intensity which depends on the give responsivity.
Abstract:
An apparatus comprising: a fermion source nanolayer (90); a first insulating nanolayer (92); a fermion transport nanolayer (94); a second insulating nanolayer (96); a fermion sink nanolayer (98); a first contact for applying a first voltage to the fermion source nanolayer; a second contact for applying a second voltage to the fermion sink nanolayer; and a transport contact for enabling an electric current via the fermion transport nanolayer. In a particular example, the apparatus comprises three graphene sheets (90, 94, 98) interleaved with two-dimensional Boron-Nitride (hBN) layers (92, 96).