Abstract: An embodiment magnetic memory device based on perpendicular exchange bias includes a non-magnetic layer, a ferromagnetic layer bonded on the non-magnetic layer, wherein a magnetization direction of the ferromagnetic layer is randomly distributed, and an anti-ferromagnetic layer bonded on the ferromagnetic layer. An embodiment method of manufacturing a magnetic memory device includes preparing the magnetic memory device based on perpendicular exchange bias, the preparing including bonding a ferromagnetic layer on a non-magnetic layer and bonding an anti-ferromagnetic layer on the ferromagnetic layer, and demagnetizing the ferromagnetic layer of the magnetic memory device, wherein a magnetization direction of the ferromagnetic layer is randomly distributed.

Abstract: An embodiment spin-orbit torque device array includes a plurality of single devices, each device including a non-magnetic layer, a magnetic layer bonded to the non-magnetic layer, and an upper layer bonded to the magnetic layer, wherein the upper layer includes oxide, and wherein a magnetization state of each of the single devices has only two states, the two states being an up state and a down state.

Abstract: A magnetic nano oscillating device, according to an embodiment of the present invention, comprises: a ferromagnetic layer disposed on a substrate; a non-magnetic conductive layer laminated on the ferromagnetic layer; an antiferromagnetic layer (or a ferrimagnetic layer) laminated on the non-magnetic conductive layer; and first and second electrodes respectively contacting both side surfaces of the ferromagnetic layer and the non-magnetic conductive layer.

Abstract: Provided is a magnetic device including a conductive layer extended in a first direction and providing a spin Hall effect on a placement plane defined by the first direction and a second direction, a free layer disposed on the conductive layer, a fixed layer disposed on a portion of the free layer, a tunnel barrier layer disposed between the free layer and the fixed layer, a first electrode disposed on the fixed layer, a first charge storage layer disposed on the free layer so as not to overlap the fixed layer, and a first gate electrode disposed on the first charge storage layer. The first electrode and the first gate electrode are arranged in the second direction.

Abstract: Disclosed herein is a spin-orbit torque device including a lower ferromagnetic layer, a non-magnetic layer bonded to the lower ferromagnetic layer, and an upper ferromagnetic layer bonded to the non-magnetic layer, wherein a magnetization orientation of the lower ferromagnetic layer is randomly distributed. According to the present disclosure, it is possible to provide a magnetic memory device which cannot be physically duplicated and has reconfigurability using a spin-orbit torque.

Abstract: Disclosed is a magnetic logic device including: a plurality of input branches configured by a magnetic nanowire including a non-magnetic metallic layer, a free layer, and an insulating layer sequentially stacked; an output branch configured by the magnetic nanowire; a coupling portion configured by the magnetic nanowire and where the input branches and the output branch meet; gate electrodes arranged adjacent to the insulating layer in each of the plurality of input branches; and in-plane anisotropic ferromagnetic layers arranged adjacent to the non-magnetic metallic layer in each of the plurality of input branches.

Abstract: Provided is a magnetic device including a conductive layer extended in a first direction and providing a spin Hall effect on a placement plane defined by the first direction and a second direction, a free layer disposed on the conductive layer, a fixed layer disposed on a portion of the free layer, a tunnel barrier layer disposed between the free layer and the fixed layer, a first electrode disposed on the fixed layer, a first charge storage layer disposed on the free layer so as not to overlap the fixed layer, and a first gate electrode disposed on the first charge storage layer. The first electrode and the first gate electrode are arranged in the second direction.

Abstract: The present invention relates to a semiconductor device. The semiconductor device based on the spin orbit torque (SOT) effect, according to an example of the present invention, comprises the first electrode; and the first cell and the second cell connected to the first electrode, wherein the first and the second cells are arranged on the first electrode separately; the magnetic tunnel junction (MTJ) having a free magnetic layer and a pinned magnetic layer with a dielectric layer in between them; the magnetization direction of the free magnetic layer is changed when the current applied on the first electrode exceeds critical current value of each cell; and the critical current value of the first cell is different from that of the second cell.

Abstract: Disclosed is a magnetic logic device including: a plurality of input branches configured by a magnetic nanowire including a non-magnetic metallic layer, a free layer, and an insulating layer sequentially stacked; an output branch configured by the magnetic nanowire; a coupling portion configured by the magnetic nanowire and where the input branches and the output branch meet; gate electrodes arranged adjacent to the insulating layer in each of the plurality of input branches; and in-plane anisotropic ferromagnetic layers arranged adjacent to the non-magnetic metallic layer in each of the plurality of input branches.

Abstract: The present invention relates to a semiconductor device. The semiconductor device based on the spin orbit torque (SOT) effect, according to an example of the present invention, comprises the first electrode; and the first cell and the second cell connected to the first electrode, wherein the first and the second cells are arranged on the first electrode separately; the magnetic tunnel junction (MTJ) having a free magnetic layer and a pinned magnetic layer with a dielectric layer in between them; the magnetization direction of the free magnetic layer is changed when the current applied on the first electrode exceeds critical current value of each cell; and the critical current value of the first cell is different from that of the second cell.

Abstract: The present invention relates to a semiconductor device. The semiconductor device based on the spin orbit torque (SOT) effect, according to an example of the present invention, comprises the first electrode; and the first cell and the second cell connected to the first electrode, wherein the first and the second cells are arranged on the first electrode separately; the magnetic tunnel junction (MTJ) having a free magnetic layer and a pinned magnetic layer with a dielectric layer in between them; the magnetization direction of the free magnetic layer is changed when the current applied on the first electrode exceeds critical current value of each cell; and the critical current value of the first cell is different from that of the second cell.

Abstract: A magnetic nano oscillating device, according to an embodiment of the present invention, comprises: a ferromagnetic layer disposed on a substrate; a non-magnetic conductive layer laminated on the ferromagnetic layer; an antiferromagnetic layer (or a ferrimagnetic layer) laminated on the non-magnetic conductive layer; and first and second electrodes respectively contacting both side surfaces of the ferromagnetic layer and the non-magnetic conductive layer.

Abstract: The present invention relates to a semiconductor device. The semiconductor device based on the spin orbit torque (SOT) effect, according to an example of the present invention, comprises the first electrode; and the first cell and the second cell connected to the first electrode, wherein the first and the second cells are arranged on the first electrode separately; the magnetic tunnel junction (MTJ) having a free magnetic layer and a pinned magnetic layer with a dielectric layer in between them; the magnetization direction of the free magnetic layer is changed when the current applied on the first electrode exceeds critical current value of each cell; and the critical current value of the first cell is different from that of the second cell.

Abstract: The present invention relates to a semiconductor device. The semiconductor device based on the spin orbit torque (SOT) effect, according to an example of the present invention, comprises the first electrode; and the first cell and the second cell connected to the first electrode, wherein the first and the second cells are arranged on the first electrode separately; the magnetic tunnel junction (MTJ) having a free magnetic layer and a pinned magnetic layer with a dielectric layer in between them; the magnetization direction of the free magnetic layer is changed when the current applied on the first electrode exceeds critical current value of each cell; and the critical current value of the first cell is different from that of the second cell.

Abstract: Semiconductor devices and semiconductor device control methods are described. A semiconductor device comprises a first electrode; a cell arranged on the first electrode and including a magnetic tunnel junction (MTJ) having a free magnetic layer and a pinned magnetic layer with a dielectric layer in between them; and a heating element to form a thermal gradient in the first electrode.

Abstract: A magnetic memory device may include tunnel junction unit cells, each including a pinned magnetic layer, an insulating layer, and a free magnetic layer which are sequentially stacked, a conductive line structure configured to supply an in-plane current to the unit cells and to include an antiferromagnetic layer, which is provided adjacent to the free magnetic layer, and a ferromagnetic layer, which is provided adjacent to the antiferromagnetic layer and has an in-plane magnetic anisotropy, and a voltage applying unit configured to independently apply a selection voltage to each of the tunnel junction unit cells. Each of the tunnel junction unit cells may have a magnetization direction that is selectively changed by the in-plane current and the selection voltage.

Abstract: The present invention relates to a semiconductor device and a semiconductor device control method. According to an example of the present invention, the semiconductor device comprises a first electrode; a cell arranged on the first electrode and including a magnetic tunnel junction (MTJ) having a free magnetic layer and a pinned magnetic layer with a dielectric layer in between them; and a heating element to form a thermal gradient in the first electrode.

Abstract: The present invention relates to a semiconductor device. The semiconductor device based on the spin orbit torque (SOT) effect, according to an example of the present invention, comprises the first electrode; and the first cell and the second cell connected to the first electrode, wherein the first and the second cells are arranged on the first electrode separately; the magnetic tunnel junction (MTJ) having a free magnetic layer and a pinned magnetic layer with a dielectric layer in between them; the magnetization direction of the free magnetic layer is changed when the current applied on the first electrode exceeds critical current value of each cell; and the critical current value of the first cell is different from that of the second cell.

Abstract: A magnetic memory device may include tunnel junction unit cells, each including a pinned magnetic layer, an insulating layer, and a free magnetic layer which are sequentially stacked, a conductive line structure configured to supply an in-plane current to the unit cells and to include an antiferromagnetic layer, which is provided adjacent to the free magnetic layer, and a ferromagnetic layer, which is provided adjacent to the antiferromagnetic layer and has an in-plane magnetic anisotropy, and a voltage applying unit configured to independently apply a selection voltage to each of the tunnel junction unit cells. Each of the tunnel junction unit cells may have a magnetization direction that is selectively changed by the in-plane current and the selection voltage.

Abstract: The present invention relates to a magnetic memory device comprising: a fixed magnetic layer; an insulation layer arranged on the fixed magnetic layer; a free magnetic layer arranged on the insulation layer; a second non-magnetic layer arranged on the free magnetic layer; and a first non-magnetic layer arranged on the second non-magnetic layer, wherein the second non-magnetic layer may include an element in the Periodic Table III-V periods.