Abstract: A microprocessor chip includes a plurality of processors; at least one first optical input/output unit configured to receive optical signals from an external device and transmit optical signals to the external device; and an optical system bus that is connected between the plurality of processors and the at least one first optical input/output unit.

Abstract: A digital-to-analog converter (DAC) includes: a plurality of first controllers and a plurality of resistor devices. The plurality of first controllers are configured to be selectively switched on according to a received digital signal to control an analog signal according to the received digital signal. The plurality of resistor devices are respectively connected to the plurality of first controllers. The plurality of resistor devices include non-volatile memory devices.

Abstract: Oscillators and methods of operating the oscillators are provided, the oscillators include an oscillating unit including at least one magnetic layer having a magnetization direction that varies according to at least one selected from the group consisting of an applied current, an applied voltage and an applied magnetic field. The oscillating unit is configured to generate an oscillation signal having a set frequency. The oscillators further include an output stage that provides an output signal by differentially amplifying the oscillation signal.

Abstract: A multi-valued logic device having an improved reliability includes a conversion unit configured to convert a multi level signal into a plurality of partial signals; and a plurality of nonvolatile memory devices configured to individually store the plurality of partial signals, wherein a number of bits of each of the plurality of partial signals individually stored in the plurality of nonvolatile memory devices is less than the number of bits of the multi level signal.

Abstract: A semiconductor device, a semiconductor system including the same, and a voltage supply method of the semiconductor device are provided. The semiconductor device includes at least two semiconductor memory devices and a voltage supply controller configured to selectively supply a voltage to each of the at least two semiconductor memory devices.

Abstract: In a memory device and in a method for controlling a memory device, the memory device comprises a magnetic structure that stores information in a plurality of domains of the magnetic structure. A read unit reads information from at least one of the plurality of domains of the magnetic structure by applying a read current to the magnetic structure. A position detector unit compares the information read by a read current from the read unit from multiple domains of the plurality of domains of the magnetic structure to identify the presence of an expected information pattern at select domains of the plurality of domains.

Abstract: A semiconductor device and a method of operating the semiconductor device. The semiconductor device includes a voltage generator configured to generate a test voltage, a graphene transistor configured to receive a gate-source voltage based on the test voltage, and a detector configured to detect whether the gate-source voltage is a Dirac voltage of the graphene transistor, and output a feedback signal applied to the voltage generator indicating whether the gate-source voltage is the Dirac voltage.

Abstract: A logic device may include a first functional block, the first functional block including, a first storage block, a second storage block, and a first function controller. In a first operation time period, the first function controller may be configured to receive a first configuration selection signal and a first configuration command signal that instructs a first function be configured, select the first storage block as a configured storage block in the first operation time period based on the first configuration selection signal, and configure the first function in the first storage block based on the first configuration command signal.

Abstract: An information storage device includes a first portion comprising at first at least one magnetic track, each of the at least one magnetic track in the first portion including a first plurality of magnetic domains and being configured to store a first type of data therein and a second portion comprising a second at least one magnetic track, each of the at least one magnetic track in the second portion including a second plurality of magnetic domains and being configured to store a second type of data therein, the second type of data being related to the first type of data.

Abstract: A method of changing a parameter in a semiconductor device is provided. The method includes receiving and storing data in a storage region; and changing at least one between a DC characteristic and an AC timing characteristic of a parameter, used to access a non-volatile memory cell included in a memory core of the semiconductor device, according to the data stored in the storage.

Abstract: The non-volatile memory device may include a substrate, a plurality of first signal lines on the substrate in a vertical direction, a plurality of memory cells having ends connected to the plurality of first signal lines, a plurality of second signal lines perpendicular to the plurality of first signal lines on the substrate and each connected to other ends of the plurality of memory cells, and a plurality of selection elements on the substrate and connected to at least two of the plurality of first signal lines.

Abstract: A resistive memory device comprises a memory cell array comprising a plurality of memory units. The memory device performs a refresh read operation to check a condition of each of the memory units. Then, it determines whether to refresh each memory unit based on data read by performing the refresh read operation, and refreshes the memory unit according to a result of the determination. The refresh read operation uses a reference resistance with a smaller margin from a resistance distribution than a normal read operation.

Abstract: A memory device includes a stacked resistive memory cell array comprising a plurality of resistive memory cell layers stacked on a semiconductor substrate, wherein respective memory cell layers are configured to store data according to respective program modes comprising a number of bits per cell. The memory device further includes a control circuit configured to identify a program mode of a selected memory cell layer responsive to an address signal and to access the selected memory cell layer responsive to the address signal according to the identified program mode. The program modes may include a single-level cell mode and at least one multi-level cell mode.

Abstract: A logic device that includes a plurality of non-volatile memory cells configured to store possible output results related to the input signal. The logic device generating an output signal by selecting and accessing one of the plurality of non-volatile memory cells based on the input signal.

Abstract: According to example embodiments, a logic device includes a first functional block configured to perform a first operation according to first operation information and a second operation according to second operation information, and a second functional block configured to perform a third operation according to the first operation information and a fourth operation according to the second operation information. The first functional block is configured to receive configuration information, to select one of the first operation information and the second operation information based on the configuration information, and to perform the first or second operation based on the selected first or second operation information.

Abstract: A controller may include a RAID controller and an access controller. The RAID controller exchanges data with a host and select ones of a plurality of RAID levels responsive to RAID level information. The access controller is connected to the RAID controller and to a plurality of channels that are each connected to a plurality of non-volatile memory chips. The access controller accesses data in at least one of the non-volatile memory chips connected to each of the channels according to the selected RAID level. The controller may alternatively or additionally include a storage device and a main processor. The main processor is configured to logically partition a plurality of non-volatile memory chips that are connected to each of a plurality of channels into a normal partition region and a RAID level partition region, where data access is performed according to a selected RAID level, in response partition information that is stored in the storage device.

Abstract: Provided are nonvolatile memory devices and program methods thereof, an integrated circuit memory system includes a memory array comprising at least one magnetic track, each of the at least one magnetic track including a plurality of magnetic domains and at least one read/write unit coupled thereto, decoding circuitry coupled to the memory array that is operable to select at least one of the magnetic domains, a read/write controller coupled to the memory array that is operable to read data from at least one of the plurality of magnetic domains and to write data to at least one of the plurality of magnetic domains via the at least one read/write unit coupled to each of the at least one magnetic track, and a domain controller coupled to memory array that is operable to move data between the magnetic domains on each of the at least one magnetic track.

Abstract: To control operations of a resistive memory device, an input-output operation of an error check and correction (ECC) code is separated from an input-output operation of data. A condition of the input-output operation of the ECC code is determined stricter than a condition of the input-output operation of the data. reliability of the input-output operation of the ECC code may be enhanced, thereby reducing errors due to defect memory cells, noise, etc.

Abstract: The logic circuit includes at least one variable resistance device configured such that a resistance value of the at least one variable resistance device varies according to at least one selected value. The selected value is selected from among a voltage and a current of an input signal, and the at least one variable resistance device is configured to memorize the resistance value. The logic circuit is configured to store multi-level data by setting the memorized resistance value.

Abstract: Provided are a storage medium, which has a security function, for storing media content and an output apparatus for outputting data stored in the storage medium. The storage medium includes a controller for converting at least one of a position of pins of a connector and a storage position of media content in a memory unit in order to control transmission of the media content in the memory unit to the output apparatus.