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    • 3. 发明授权
    • Method of propagating magnetic domain wall in magnetic devices
    • US10236046B2
    • 2019-03-19
    • US15807464
    • 2017-11-08
    • IMEC VZWKatholieke Universiteit Leuven
    • Adrien Vaysset
    • G11C11/16G11C19/08
    • The disclosed technology generally relates to magnetic devices, and more particularly to magnetic devices configured to generate a stream of domain walls propagating along an output magnetic bus. In an aspect, a magnetic device includes a magnetic propagation layer, which in turn includes a plurality of magnetic buses. The magnetic buses include an output magnetic bus configured to guide propagating magnetic domain walls. The magnetic propagation layer further comprises a central region in which the magnetic buses converge and are joined together. The magnetic buses include at least a first and a second magnetic bus having opposite magnetization orientations with respect to each other, such that a domain wall separating the opposite magnetization states is pinned in the central region. In another aspect, a method includes providing the magnetic device and generating the stream of domain walls propagating along the output magnetic bus by applying spin orbit and/or transfer torques to the pinned domain wall to alternate the pinned domain wall between two stable configurations, in which each stable configuration corresponds to a different magnetization state of the output magnetic bus in at least a region where the output magnetic bus is joined to the central region.
    • 6. 发明授权
    • Magnetic majority gate device
    • US10164077B2
    • 2018-12-25
    • US15693243
    • 2017-08-31
    • IMEC VZWKatholieke Universiteit Leuven
    • Adrien VayssetMauricio Manfrini
    • H01L29/66H03K19/23H03K19/18G11C11/16B82Y10/00H01L29/06
    • The disclosed technology relates generally to spintronics, and more particularly to a magnetic majority gate device. In one aspect, a magnetic majority gate device includes a magnetic propagation layer and at least one input transducer. The magnetic propagation layer includes a plurality of magnetic buses configured to guide propagating magnetic domain walls along longitudinal directions corresponding to elongated directions of the magnetic buses. The plurality of magnetic buses includes a plurality of input magnetic buses, where each of the input magnetic buses has a corresponding input site configured to receive a corresponding input magnetic domain wall. At least one input transducer at a corresponding input site is configured to convert a digital input electrical signal into an input magnetic domain wall, such that a magnetization state of the input magnetic domain wall corresponds to a digital logic state of the digital input electrical signal. The at least one input transducer is configured to inject an in-plane electrical current into the corresponding input magnetic bus if the digital logic state is a predetermined digital logic state. The magnetic propagation layer includes a central region at which the magnetic buses converge and are joined together, such that the central region is configured for an interaction of input magnetic domain walls guided by two or more magnetic buses. The central region includes at least one magnetic constriction configured to locally restrict propagation of propagating magnetic domain walls.
    • 7. 发明申请
    • MAGNETIC MAJORITY GATE DEVICE
    • US20180061970A1
    • 2018-03-01
    • US15693243
    • 2017-08-31
    • IMEC VZWKatholieke Universiteit Leuven
    • Adrien VayssetMauricio Manfrini
    • H01L29/66
    • H01L29/66984B82Y10/00G11C11/161H01L29/0673H03K19/18H03K19/23
    • The disclosed technology relates generally to spintronics, and more particularly to a magnetic majority gate device. In one aspect, a magnetic majority gate device includes a magnetic propagation layer and at least one input transducer. The magnetic propagation layer includes a plurality of magnetic buses configured to guide propagating magnetic domain walls along longitudinal directions corresponding to elongated directions of the magnetic buses. The plurality of magnetic buses includes a plurality of input magnetic buses, where each of the input magnetic buses has a corresponding input site configured to receive a corresponding input magnetic domain wall. At least one input transducer at a corresponding input site is configured to convert a digital input electrical signal into an input magnetic domain wall, such that a magnetization state of the input magnetic domain wall corresponds to a digital logic state of the digital input electrical signal. The at least one input transducer is configured to inject an in-plane electrical current into the corresponding input magnetic bus if the digital logic state is a predetermined digital logic state. The magnetic propagation layer includes a central region at which the magnetic buses converge and are joined together, such that the central region is configured for an interaction of input magnetic domain walls guided by two or more magnetic buses. The central region includes at least one magnetic constriction configured to locally restrict propagation of propagating magnetic domain walls.