Abstract: A system to determine a position of one or more objects includes a transmitter to emit a beam of photons to sequentially illuminate regions of one or more objects; multiple cameras that are spaced-apart with each camera having an array of pixels to detect photons; and one or more processor devices that execute stored instructions to perform actions of a method, including: directing the transmitter to sequentially illuminate regions of one or more objects with the beam of photons; for each of the regions, receiving, from the cameras, an array position of each pixel that detected photons of the beam reflected or scattered by the region of the one or more objects; and, for each of the regions detected by the cameras, determining a position of the regions using the received array positions of the pixels that detected the photons of the beam reflected or scattered by that region.

Abstract: A method and system for providing a magnetic element and a magnetic memory utilizing the magnetic element are described. The magnetic element is used in a magnetic device that includes a contact electrically coupled to the magnetic element. The method and system include providing pinned, nonmagnetic spacer, and free layers. The free layer has an out-of-plane demagnetization energy and a perpendicular magnetic anisotropy corresponding to a perpendicular anisotropy energy that is less than the out-of-plane demagnetization energy. The nonmagnetic spacer layer is between the pinned and free layers. The method and system also include providing a perpendicular capping layer adjoining the free layer and the contact. The perpendicular capping layer induces at least part of the perpendicular magnetic anisotropy in the free layer. The magnetic element is configured to allow the free layer to be switched between magnetic states when a write current is passed through the magnetic element.

Abstract: A host receives information related to garbage collection of a storage device, and it controls selective execution of garbage collection by the storage device according to the received information.

Abstract: An embedded multimedia card (eMMC) is provided. The eMMC includes a clock channel receiving a clock output from a host, data channels receiving data signals from the host, and a command channel receiving a SWITCH command including delay offset values from the host so as to adjust a delay of at least one of the data signals, which are received, in response to the delay offset values.

Abstract: A resistive memory device comprises a resistive memory cell, and a read/program circuit configured to program the resistive memory cell from a first state to a second state. The read/program circuit reads a resistance in the first state of the resistive memory cell and adjusts a compliance current supplied to the resistive memory cell according to the read resistance during the program operation.

Abstract: Embodiments of the present invention relate in general to systems and methods for dynamically correcting color cross-talk and related color distortion in an image sensor. More specifically, but not by way of limitation, certain embodiments of the present invention relate to correcting pixel outputs from a pixel array in an image sensor at the Bayer domain for color cross-talk and/or green disparity using hyperbolically varying correction functions to dynamically derive color cross-talk correction factors using pixel location on the pixel array, a selected pixel output and related outputs from neighboring pixels on the image sensor prior to or synchronous with color interpolation.

Abstract: Systems, methods and devices related to detecting and transmitting images. Imaging systems and devices, as well as methods of using such that are provided herein include flicker detection and/or correction; and/or built-in self test associated with various analog circuitry in the imaging devices; and/or power reduction ability; and/or pixels with charge evacuation functionality; and/or a parallel to serial conversion unit and associated serial output interface; and/or other advanced functionality.

Abstract: The expression A-sign(A), where A is a signed binary integer represented in 2's complement form, sign(A) is equal to one when A is greater than zero, sign(A) is equal to zero when A is zero, and sign(A) is equal to negative one when A is less than zero, is calculated by bit-complementing A, bit-complementing (A-1) when A is less than zero, bit-complementing A when A is equal to zero, and bit-complementing (A+1) when A is greater than zero. Zero detect for A is provided by determining whether a first carry-out bit from (A+0) and a second carry-out bit from (A+1) have different logical values. In this manner, A-sign(A) can be calculated by a general purpose computer in a single instruction cycle.

Abstract: The expression A-sign(A), where A is a signed binary integer represented in 2's complement form, sign (A) is equal to one when A is greater than zero, sign (A) is equal to zero when A is zero, and sign (A) is equal to negative one when A is less than zero, is calculated by bit-complementingA, bit-complementing (A-1) when A is less than zero, bit-complementing A when A is equal to zero, and bit-complementing (A+1) when A is greater than zero. Zero detect for A is provided by determining whether a first carry-out bit from (A+0) and a second carry-out bit from (A+1) have different logical values. In this manner, A-sign (A) can be calculated by a general purpose computer in a single instruction cycle.

Abstract: The expression 2A+sign(A), where A is a signed binary integer represented in 2's complement form, sign(A) is equal to one when A is greater than zero, sign(A) is equal to zero when A is zero, and sign(A) is equal to negative one when A is less than zero, is calculated by bit-complementing A, bit-complementing (A+A+2) when A is less than zero, bit-complementing (A+A+1) when A is equal to zero, and bit-complementing all bits except a least significant bit of (A+A+1) when A is greater than zero. Zero detect for A is provided by determining whether a first carry-out bit from (A+A+1) and a second carry-out bit from (A+A+2) have different logical values. In this manner, 2A+sign(A) can be calculated by a general purpose computer in a single instruction cycle.

Abstract: A frame buffer including a memory array, circuitry for accessing the array, a plurality of latches each capable of storing a plurality of pixel values equivalent to a large portion of a row of pixels in the array which may be read simultaneously from the array, and circuitry for writing simultaneously to the memory cells of a row of the array the data stored in the latches whereby a row of pixels may be read and written back to the array bus in a minimum time period.

Abstract: A frame buffer designed to allow frame buffer operations which do not involve new row addresses to be accomplished without the need for a RAS cycle. The elimination of RAS cycles for address loading and similar functions substantially accelerates the operation of the frame buffer both as to functions which do not involve memory array addresses and those which do involve memory array addresses.

Abstract: A system device of a PC, XT or AT type computer having an ISA bus is provided with a dynamic 32-bit bus by packing circuits or PACs (142, 152) located on user add-on cards. Each PAC includes a state machine (200) which controls four tag registers (210, 211, 212, 213), four input data registers (220, 221, 222, 223), four output data registers (240, 241, 242, 243), and an output multiplexer (250). The four tag registers are for storing a byte-high enable signal BHEN and system address bits SA[1:0] associated with bytes, words, and doublewords presented to the PAC during bus write cycles. The four input data registers are for storing the bytes, words, and doublewords presented to the PAC during bus write cycles. These bytes, words, and doublewords are steered to appropriate bit positions in the input data registers by four steering circuits (214, 215, 216, 217), which are controlled by the platform type signal CR2B2.sub.-- 1 and by the output of a decoder decoding the outputs of the tag registers.

Abstract: A differential flash ADC includes an input follower differential input stage for receiving a differential input signal. The outputs of the differential input stage are coupled to legs of a differential resistive ladder having nodes cross-coupled to the inputs of a comparator array. Each leg of the differential resistor ladder is terminated by a current source.

Abstract: A balun, which does not use magnetic coupling and is easily integrated in MMICs, is formed of lumped parameter inductive and capacitive circuit elements. In one embodiment, a termination circuit is utilized to prevent reflections of common mode signals.

Abstract: A frame buffer including an array of memory cells for storing data indicating pixels to be displayed on the output display, row addressing decoding apparatus and column address decoding apparatus for selecting memory cells positioned in the array, apparatus for transferring a row address to the row addressing decoding apparatus upon the assertion of a row address strobe signal, apparatus for transferring a column address to the column address decoding apparatus for decoding upon the assertion of a first column address strobe signal, apparatus for latching a column address and any data necessary to complete the access during the first column address strobe signal, apparatus for accessing the particular column the address of which has been latched during the latching of a next subsequent address of a column to be accessed along with any data necessary to complete the next access during the next subsequent column address strobe signal following the first column address strobe signal.

Abstract: A frame buffer having a memory array, circuitry for accessing the array, a plurality of color value registers for storing a plurality of color values which may be written to the array, and circuitry for writing to the memory cells a data representing a single pixel, for writing simultaneously to the memory cells data representing a number of pixels equal to the number of conductors on the data bus, or for writing simultaneously to the memory cells data representing an entire row of pixels of the array.

Abstract: A frame buffer designed to be coupled to a data bus and to an output display in a computer system, the frame buffer including an array of memory cells for storing data indicating pixels to be displayed on the output display, address decoding apparatus for controlling access to the array, the address decoding apparatus including column address decoding apparatus for selecting groups of adjacent columns of the array, a plurality of apparatus for selectively writing to each of the columns of any of said groups of adjacent columns, a plurality of color value registers, latching apparatus for storing pixel data equivalent to a row of pixel data to be displayed on the output display, apparatus for writing pixel data from selected groups of adjacent columns of the array to the latching apparatus, and apparatus for connecting either selected ones of the color value registers, the latches, or the data bus to the apparatus for selectively writing to each of the columns of any of said groups of adjacent columns.

Abstract: A frame buffer for accelerating the display of graphics data on an output display device which frame buffer includes a pair of color value registers each of which may be loaded with color values prior to writing to the frame buffer. Selection means are provided for selecting pixel data from the bus, from a first of the color value registers, from the second of the color value registers, or from both color value registers simultaneously. When data is written to the frame buffer from color value registers it may be written to a number of pixel positions simultaneously.

Abstract: A frame buffer including an array of memory cells, circuitry for accessing the memory cells to derive selected pixel data, and output circuitry for providing data signals at an output port, the output circuitry including circuitry for determining the precise time required for a data signal to rise and fall at the output port, such circuitry being selected to provide the minimum delay between succeeding data signals at the output port.