10results about "Logic circuits using saturable magnetic devices" patented technology

A system and method for a logic device is disclosed. A first substrate, a second substrate and a third substrate is provided. A first input nanomagnet is disposed over the first substrate, a second input nanomagnet is disposed over the second substrate, and a third input nanomagnet is disposed over the third substrate. The easy axis of the first input nanomagnet, the second input nanomagnet, and the third input nanomagnet are in a first direction perpendicular to the first substrate, the second substrate and the third substrate. A spacer layer is disposed over the first input nanomagnet, the second input nanomagnet, and the third input nanomagnet. A first ferromagnetic layer is disposed over the spacer layer.

A spin logic device includes a first stage unit in which one side of the first magnetic layer is connected to an upper end of a first spin-charge conversion layer, a first dielectric layer is connected to a lower end of the other side of the first magnetic layer, a first conductive channel for receiving input current is connected to a lower end of the first dielectric layer, a first input portion formed of a conductor for receiving a first drive voltage is connected to an upper end of one side of the first magnetic layer, a second conductive channel for outputting first output current is connected to a lower end of the first spin-charge conversion layer, and a first conductor having a ground is connected to a lower end of the second conductive channel. A resistor for outputting steady current as the first output current may be connected between nodes on opposite ends of the second conductive channel.

A magnetoresistive sensor contains a bridge circuit having at least one magnetoresistive resistor, wherein the bridge circuit is configured to provide a first differential analog output voltage. The magnetoresistive sensor also contains an amplifier circuit connected downstream of the bridge circuit, wherein the amplifier circuit is configured to provide a second differential analog output voltage based on the first differential analog output voltage provided by the bridge circuit. The second differential analog output voltage has a value of zero at a specified magnetic field strength not equal to zero. A common-mode voltage associated with the second differential analog output voltage corresponds to a specified percentage of a supply voltage of the bridge circuit.

A system and method for a device is disclosed. A first logic device and a second logic device are provided. Each of the first logic device and the second logic device include at least three inputs and one output, wherein, the output is based on majority of the inputs. The output of the first logic device is selectively fed to the second logic device, wherein, the first logic device and the second logic device together form an adder circuit.

The present invention relates to a logic device (10) comprising: - a first and a second arm (12) through which a charging current passes; - a channel (16) that connects the arms (12, 14) and comprises a first zone of contact with the first arm (12) and a second zone of contact with the second arm (14), the arms (12, 14) and the channel (16) being able, in the first zone of contact, to convert a charging current into a spin current and, in the second zone of contact, to convert a spin current into a charging current; and - a unit (20) for controlling the direction of the charging current in the second arm (14), the control unit (20) comprising a sub-unit (22) for electrical control of a conversion.

The invention relates to a magnetoresistive sensor and an associated manufacturing method. A magnetoresistive sensor includes a bridge circuit having at least one magnetoresistive resistor, wherein the bridge circuit is designed to provide a first differential analog output voltage. The magnetoresistive sensor also includes an amplification circuit downstream of the bridge circuit, wherein the amplification circuit is designed to provide a second differential analog output voltage based on the first differential analog output voltage provided by the bridge circuit. Under the condition of non-zero preset magnetic field intensity, the second differential analog output voltage has a zero value. A common mode voltage assigned to the second differential analog output voltage corresponds to a preset percentage of a supply voltage of the bridge circuit.

A frequency generator, includes a control unit, configured to receive an input signal to generate a divisor signal, a phase signal and a circulation signal; a frequency divider, configured to receive the input signal and perform an integer division to the input signal according to the divisor signal, so as to generate a frequency division signal; a circulating delay circuit, coupled to the frequency divider and configured to perform at least one circulating operation to the frequency division signal, and for each circulating operation, generate at least one phase delay signal; a first multiplexer, coupled to the circulating delay circuit and configured to select one signal from the frequency division signal and the at least one phase delay signal according to the phase signal, so as to generate a multiplexed signal; and a retimer, coupled to the first multiplexer and configured to generate an output signal.

A magnetic artificial honeycomb lattice is provided. The magnetic artificial honeycomb lattice includes a multiplicity of connecting elements separated by hexagonal cylindrical pores. The (a) hexagonal cylindrical pores (i) have widths that are substantially uniform; and (ii) are substantially equispaced. The (b) connecting elements includes a magnetic material layer. The connecting elements have: (i) lengths that are substantially uniform; (ii) widths that are substantially uniform; and (iii) a thickness of the magnetic material layer that is substantially uniform and an average thickness. The magnetic artificial honeycomb lattice is configured to receive two input currents and configured to output an output voltage based upon the two input currents.

A magnetoresistive sensor comprises a bridge circuit with at least one magnetoresistive resistor, the bridge circuit being configured to provide a first differential analog output voltage. The magnetoresistive sensor further comprises an amplifier circuit downstream of the bridge circuit, the amplifier circuit being configured to provide a second differential analog output voltage based on the first differential analog output voltage provided by the bridge circuit. The second differential analog output voltage is zero at a predetermined non-zero magnetic field strength. A common-mode voltage associated with the second differential analog output voltage corresponds to a predetermined percentage of a supply voltage of the bridge circuit.

A method for skyrmion based processing is provided. The method comprises generating a number of skyrmions. The skyrmions are moved down a skyrmion racetrack using a multi-phase voltage-controlled magnetic anisotropy (VCMA) clock. A number of logical operations are performed with zero or more skyrmions belonging to the same clock cycle that meet at a logical junction. Outputs of the logical operations fan out to other logic gates for computation of any arbitrary combinatorial function.