Abstract: A display apparatus includes a first interpolator configured to generate first correction data for a first polarity corresponding to an input data using a first look up table which stores correction data for the first polarity compensating for a luminance difference between the first polarity and a second polarity opposite to the first polarity of a data voltage for the sub pixel, a first delay compensator configured to apply a correction value to the first correction data for the first polarity and generate second correction data for the first polarity, the correction value compensating for an RC delay based on a pixel position corresponding to the input data.

Abstract: A ring-shaped magnetoresistive memory device includes a ring-shaped magnetoresistive memory cell, a first conductor, and a second conductor. The first conductor is positioned on a first surface of the ring-shaped magnetoresistive memory cell for generating a first magnetic field pulse. The second conductor is positioned on a second surface of the ring-shaped magnetoresistive memory cell for generating a second magnetic field pulse. The first surface is opposite to the second surface. An extension direction of the first conductor is perpendicular to an extension direction of the second conductor. A time delay is between the first magnetic field pulse and the second magnetic field pulse.

Abstract: A magnetic memory device includes a free layer and a guide layer on a substrate. An insulating layer is interposed between the free layer and the guide layer. At least one conductive bridge passes through the insulating layer and electrically connects the free layer and the guide layer. A diffusion barrier may be interposed between the guide layer and the insulating layer. The device may further include a reference layer having a fixed magnetization direction on a side of the free layer opposite the insulating layer and a tunnel barrier between the reference layer and the free layer. Related fabrication methods are also described.

Abstract: A magnetic memory device includes a free layer and a guide layer on a substrate. An insulating layer is interposed between the free layer and the guide layer. At least one conductive bridge passes through the insulating layer and electrically connects the free layer and the guide layer. A diffusion barrier may be interposed between the guide layer and the insulating layer. The device may further include a reference layer having a fixed magnetization direction on a side of the free layer opposite the insulating layer and a tunnel barrier between the reference layer and the free layer. Related fabrication methods are also described.

Abstract: According to one embodiment, a semiconductor storage device includes a first memory cell, a second memory cell and a third memory cell. The first memory cell forms a connection path used for storage of data. The second memory cell varies a connection place from a connection place of the connection path formed in the first memory cell, and stores data different from the data stored in the first memory cell is stored. The third memory cell varies a connection place from the connection place of the connection path formed in the second memory cell, and stores data same as the data stored in the first memory cell is stored.

Abstract: A method of writing a magneto-resistive random access memory (MRAM) cell includes providing a writing pulse to write a value to the MRAM cell; and verifying a status of the MRAM cell immediately after the step of providing the first writing pulse. In the event of a write failure, the value is rewritten into the MRAM cell.

Abstract: The present invention provides a method for providing magnetic shielding for a circuit comprising magnetically sensitive materials, comprising actively shielding the circuit from a disturbing magnetic field. A corresponding semiconductor device is also provided. The method and device allows shielding for strong disturbing magnetic fields.

Abstract: Magnetic shielding is provided using a variety of methods, systems, devices and circuits. Aspects of present invention provide a method for providing magnetic shielding for a circuit comprising magnetically sensitive materials. The circuit is actively shielded from a disturbing magnetic field. A corresponding semiconductor device is also provided. The method and device can provide shielding for strong disturbing magnetic fields.

Abstract: An integrated circuit chip having programmable functions and features in which one-time programmable (OTP) memories are used to implement a non-volatile memory function, and a method for providing the same. The OTP memories may be based on poly-fuses as well as gate-oxide fuses. Because OTP memories are small, less die area is utilized as compared to metal fuses. Addtionally, because OTP memories can be implemented as part of standard complementary metal oxide semiconductor (CMOS) processes, the method is less costly and complex than the use of electrically-erasable programmable read-only memories (E2PROMs).

Abstract: A plurality of reference words based on a second distance index that allows coding of a first distance index are registered in an associative memory core in advance. In a first pipeline stage, a retrieved word having a predetermined number of bits is extracted from input data in a predetermined clock cycle, and the retrieved word is coded with the second distance index and output to the core. In a second pipeline stage, the core searches for a reference word inhabiting the largest similarity with respect to the retrieved word (winner) obtained in the previous clock cycle. In a third pipeline stage, the core output result in the previous clock cycle is analyzed, one winner is determined on the basis of a specific priority, and an address indicating the location of the winner and the distance between the input data and the winner are coded and output.

Abstract: A magnetoresistive or magnetic memory element and a magnetic random access memory having one or more magnetic memory elements. The memory element includes a magnetic tunnel junction including first and a second magnetic layers. The first magnetic layer having a free magnetization. The free magnetization of the first magnetic layer is magnetically coupled to a first current line and a second current line for switching the free magnetization, and a mechanism for applying a static magnetic offset field in the direction of at least one of the first and second current lines.

Abstract: There are provided a first reference layer, in which a direction of magnetization is fixed, and a storage layer including a main body, in which a length in an easy magnetization axis direction is longer than a length in a hard magnetization axis direction, and a projecting portion provided to a central portion of the main body in the hard magnetization axis direction, a direction of magnetization of the storage layer being changeable in accordance with an external magnetic field.

Abstract: A method and system for providing and using a magnetic random access memory are disclosed. The method and system include providing a plurality of magnetic memory cells, a first plurality of write lines, and a second plurality of write lines. The first plurality of write lines is a plurality of magnetic write lines. At least one of the plurality of magnetic lines and at least one of the second plurality of write lines each carrying a current for writing to at least one of the plurality of magnetic memory cells. Preferably, the plurality of magnetic write lines have soft magnetic properties and are preferably magnetic bit lines. For magnetic tunneling junction stacks within the magnetic memory cells, the magnetic bit lines are preferably significantly thicker than and closely spaced to the free layers of the magnetic memory cells.

Abstract: A resistive memory device (40) and method of manufacturing thereof including magnetic memory cells (14) having a second magnetic layer (20) including at least a first and second material (24/26). The Curie temperature of the second material (26) is lower than the Curie temperature of the first material (24). A plurality of non-continuous second conductive lines (22) are disposed over the magnetic memory cells (14). A current (28) may be run through the second conductive lines (22) to increase the temperature of the second material (26) to a temperature greater than the second material (26) Curie temperature, causing the second material (26) to lose its ferromagnetic properties, providing increased write selectivity to the memory array (40).

Abstract: A device including a magnetic material having a magnetization configuration that is circular in a plane, and a word line for producing a magnetic field in the plane, the magnetic field being radial with respect to a point in the plane and within the circular magnetization configuration.

Abstract: A memory architecture for a regular array of non-volatile ferromagnetic rom access annular memory elements which can be based on the giant magnetoresistance (GMR) effect. A first sense row in the array connects the memory elements with strips which are staggered so that each memory element is connected through its upper surface to the memory element on one side and through the lower surface to one on the other side. Running transverse to the first sense row is a word line made up of a series of wires passing in magnetic field producing proximity to the memory elements along a column of the array and not being in electrical contact with the memory elements. The strips of the word line are staggered so they similarly produce a meandering conductive pathway through the word line from one side of the array to the other in series. The wires of the word line can pass through the open core of the annular element or the wires can pass adjacent to the memory elements.

Abstract: A multi-layer magnetic memory cell is provided, with magnetic vectors aligned along a length of the cell. To align the magnetic end vectors, an ellipsoidal shape is formed at the ends of the memory cell. Magnetic vectors aligned along the length prevent from forming high fields and magnetic poles at the discontinuity or ends of the layers. The memory cell with the ellipsoidal shape shows a constant magnetic resistance of the magnetic cell when a magnetic field is applied to the cell and attains a reduction of power consumption for the magnetic cell.

Abstract: Improved methods for selecting memory cells in magnetic random access memory (MRAM) are provided. Whenever a state in a memory cell is sensed, a MRAM requires to adjust an output of comparator to a zero voltage (auto-zeroing step) before the content of memory cell is detected. This invention sequentially accesses memory cells 29-30 once sense line 25 is selected and auto-zeroed. Accordingly, a higher speed operation is attained because the invention does not require an auto-zeroing step every sensing a memory cell.

Abstract: An integrated circuit breaker is described having shunt trip capability along with automatic overcurrent protection through the circuit breaker trip unit and shunt trip module. The shunt trip module further provides auxiliary power to the trip unit and allows the trip unit microprocessor to report and record the shunt trip operation.

Abstract: A memory element has a sandwich structure in which rings of ferromagnetic material are spaced apart by a layer of a non-magnetic conductor (which is also typically a ring). These ferromagnetic rings will have differing magnetic hardness. At least one ring will be magnetically hard or antiferromagnetically-pinned. At least one other ring will be magnetically softer than the hard or antiferromagnetically-pinned ring. The non-magnetic conductor is at least thick enough to prevent essentially all exchange coupling between the ferromagnetic rings. Conducting leads provide current to pass through the ferromagnetic rings, perpendicular to magnetic moments in the ferromagnetic rings.

Abstract: A ferromagnetic memory circuit (10) and a ferromagnetic memory device (15) which has a substrate (42). Within the substrate (42), a first current electrode (44) and a second current electrode (46) are formed. A control electrode (50) is formed to control current flow between the first and second current electrodes (44 and 46). A ferromagnetic region (68) is used to store a logic value via magnetic flux. Two conductive layers (62 and 70) and a conductive spacer (78) form a sense conductor for device (15). The sense conductor is used to externally provide the logic value stored in the device (15). A conductive layer (82) forms a program/erase line for altering the logic value stored in the device (15). A logic one or a logic zero is stored in ferromagnetic region (68) depending upon a direction and a magnitude of current flow through conductive layer (82).