Abstract: Disclosed are a spin logic device based on spin-charge conversion and a spin logic array using the same. A reconfigurable spin logic array according to an exemplary embodiment of the present invention may include: an input terminal receiving at least three current signals; a plurality of wires transmitting the current signal in connection with the input terminal and including a horizontal wire and a vertical wire which cross each other; a first gate array in which at least one first majority gate connected to the input terminal through the wires and implemented based on the spin logic device is arranged; and a second gate array in which at least one second majority gate connected to the first gate array through the wires and implemented based on the spin logic device is arranged.

Abstract: Disclosed are a spin logic device based on spin-charge conversion and a spin logic array using the same. A reconfigurable spin logic array according to an exemplary embodiment of the present invention may include: an input terminal receiving at least three current signals; a plurality of wires transmitting the current signal in connection with the input terminal and including a horizontal wire and a vertical wire which cross each other; a first gate array in which at least one first majority gate connected to the input terminal through the wires and implemented based on the spin logic device is arranged; and a second gate array in which at least one second majority gate connected to the first gate array through the wires and implemented based on the spin logic device is arranged.

Abstract: Disclosed art a magnetic tunnel junction device, a magnetic memory using the same, and a method for manufacturing the same. The method for manufacturing the magnetic tunnel junction device may include the steps of a lamination step of forming an initial multilayer structure including at least one metallic oxide layer and a metallic layer on a substrate; a heat treatment step of heat-treating the initial multilayer structure; and a device forming step of forming a magnetic tunnel junction device of a final multilayer structure in which at least one metallic oxide layer and the metallic layer are converted to at least one ferromagnetic material layer and the oxide layer by heat treatment.

Abstract: Disclosed are a spin logic device based on spin-charge conversion and a spin logic array using the same. A reconfigurable spin logic array according to an exemplary embodiment of the present invention may include: an input terminal receiving at least three current signals; a plurality of wires transmitting the current signal in connection with the input terminal and including a horizontal wire and a vertical wire which cross each other; a first gate array in which at least one first majority gate connected to the input terminal through the wires and implemented based on the spin logic device is arranged; and a second gate array in which at least one second majority gate connected to the first gate array through the wires and implemented based on the spin logic device is arranged.

Abstract: The present invention relates to a magnetic device including a spin-current pattern generating a spin current perpendicular to a main plane of the spin-current pattern by an in-plane current, and a free magnetic layer disposed in contact with the spin-current pattern and having a perpendicular magnetic anisotropy magnetically switchable by the spin current.

Abstract: The present invention relates to a magnetic device including a spin-current pattern generating a spin current perpendicular to a main plane of the spin-current pattern by an in-plane current, and a free magnetic layer disposed in contact with the spin-current pattern and having a perpendicular magnetic anisotropy magnetically switchable by the spin current.

Abstract: Provided are a multi-layered magnetic thin film stack, a magnetic tunneling junction, and a data storage device. The multi-layered magnetic thin film stack includes a FePd alloy layer including an alloy of iron (Fe) and palladium (Pd); a tunneling barrier layer, which includes MgO and is disposed on the FePd alloy layer; and a Heusler alloy layer disposed between the FePd alloy layer and the tunneling barrier layer, wherein the FePd alloy layer and the Heusler alloy layer constitute a hybrid magnetic layer.

Abstract: Provided are a multi-layered magnetic thin film stack, a magnetic tunneling junction, and a data storage device. The multi-layered magnetic thin film stack includes a FePd alloy layer including an alloy of iron (Fe) and palladium (Pd); a tunneling barrier layer, which includes MgO and is disposed on the FePd alloy layer; and a Heusler alloy layer disposed between the FePd alloy layer and the tunneling barrier layer, wherein the FePd alloy layer and the Heusler alloy layer constitute a hybrid magnetic layer.

Abstract: The present invention relates to hydrogen surface-treated graphene, a formation method thereof, and an electronic device including the same. The graphene according to one exemplary embodiment of the present invention can be useful in preparing hydrogen surface-treated graphene having a band gap using simple methods through indirect hydrogen plasma treatment. Also, the graphene according to one exemplary embodiment of the present invention can be useful in forming two regions having different band gaps through the indirect hydrogen plasma treatment, and thus can be useful in reducing the processing time and the processing cost since the graphene is directly applicable to electronic devices such as transistors, and touch panels.

Abstract: The present invention relates to hydrogen surface-treated graphene, a formation method thereof, and an electronic device including the same. The graphene according to one exemplary embodiment of the present invention can be useful in preparing hydrogen surface-treated graphene having a band gap using simple methods through indirect hydrogen plasma treatment. Also, the graphene according to one exemplary embodiment of the present invention can be useful in forming two regions having different band gaps through the indirect hydrogen plasma treatment, and thus can be useful in reducing the processing time and the processing cost since the graphene is directly applicable to electronic devices such as transistors, and touch panels.

Abstract: Provided is a neural device including at least one nano-wire. The neural device includes a nano-wire formed on a base formed on a first surface of a substrate, and an electrode pad formed on a second surface different from the first surface of the substrate and configured to output an electrical signal gained from a neural fiber through the nano-wire or apply a signal for an electric stimulus to the nano-wire. Therefore, it is possible to prevent the nano-wire from becoming embedded in an encapsulation and maximize a contact between the nano-wire and a nerve.

Abstract: Provided is a neural device including at least one nano-wire. The neural device includes a nano-wire formed on a base formed on a first surface of a substrate, and an electrode pad formed on a second surface different from the first surface of the substrate and configured to output an electrical signal gained from a neural fiber through the nano-wire or apply a signal for an electric stimulus to the nano-wire. Therefore, it is possible to prevent the nano-wire from becoming embedded in an encapsulation and maximize a contact between the nano-wire and a nerve.

Abstract: The present invention relates to a method for fabricating a magnetic pattern and a method for manufacturing a patterned media through fabrication of the magnetic pattern. The method for fabricating the magnetic pattern according to an embodiment of the present invention comprises the steps of (a) coating a pattern forming layer for fabricating a magnetic pattern on a substrate; (b) forming a mask layer that has a designed opening pattern with a nano imprinting process using a stamp that has a nanostructure pattern on the pattern forming layer; and (c) converting an area of the pattern forming layer that corresponds to the predetermined opening pattern into a magnetic area by irradiating a predetermined hydrogen ion beam onto the mask layer.

Abstract: A tunneling magnetoresistive device and a magnetic head including the tunneling magnetoresistive device are provided. The tunneling magnetoresistive device includes a pinned layer and a free layer formed on either side of a tunneling barrier layer, wherein the tunneling barrier layer includes Te—O.

Abstract: A magnetoresistive spin-valve sensor is constructed to include a magnetic layer, a specular layer made of a metal oxide, a back layer made of Au, Cu, AuCu, AgCu, AuAgCu or an alloy thereof and interposed between the magnetic layer and the specular layer, and a metal layer disposed adjacent to the specular layer, opposite to the back layer, and made of a metal which improves GMR performance of the magnetoresistive spin-valve sensor.

Abstract: A magnetoresistive spin-valve sensor is constructed to include a magnetic layer, a specular layer made of a metal oxide, a back layer made of Au, Cu, AuCu, AgCu, AuAgCu or an alloy thereof and interposed between the magnetic layer and the specular layer, and a metal layer disposed adjacent to the specular layer, opposite to the back layer, and made of a metal which improves GMR performance of the magnetoresistive spin-valve sensor.

Abstract: A magnetoresistive spin-valve sensor includes a first layer made of a magnetic material, a second layer made of a magnetic or nonmagnetic material and disposed on the first layer, and a third layer made of a magnetic material and disposed on the second layer, where the first, second and third layers form a free layer having a multi-layer structure.

Abstract: A spin-valve magneto-resistive element is provided with a free magnetic layer having a first surface and a second surface opposite to the first surface, a first stacked structure including a first nonmagnetic metal layer, a first pinned magnetic layer and a first antiferromagnetic layer which are successively stacked on the first surface of the free magnetic layer, and a second stacked structure including a second nonmagnetic metal layer, a second pinned magnetic layer and a second antiferromagnetic layer which are successively stacked on the second surface of the free magnetic layer. A direction of an exchange coupled field between the first pinned magnetic layer and the free magnetic layer and a direction of an exchange coupled field between the second pinned magnetic layer and the free magnetic layer are antiparallel.