| Patent application number | Description | Published |
|---|
| 20080225596 | HIGH ACCURACY ADAPTIVE PROGRAMMING - Flash memory devices have a plurality of memory cells that can be erased and programmed. Performing a voltage verification check allows a for an appropriate state-change voltage to be applied to the flash memory device. The appropriate state-change voltage is determined though accessing a look-up table. Using an appropriate state-change voltage allows a cell to operate with more overall programming cycles. | 09-18-2008 |
| 20090040839 | READING MULTI-CELL MEMORY DEVICES UTILIZING COMPLEMENTARY BIT INFORMATION - Providing differentiation between overlapping memory cell bits in multi-cell memory devices is described herein. By way of example, select groups of memory cells of the multi-cell memory devices can be iteratively disabled to render state distributions of remaining, non-disabled memory cells, non-overlapped. System components can measure distributions rendered non-overlapped to uniquely identify states of such distributions. Identified state distributions can subsequently be disabled to render other state distributions non-overlapped, and therefore identifiable. In such a manner, read errors associated with overlapped bit states of multi-cell memory devices can be mitigated. | 02-12-2009 |
| 20090109721 | NONVOLATILE MEMORY ARRAY PARTITIONING ARCHITECTURE AND METHOD TO UTILIZE SINGLE LEVEL CELLS AND MULTI LEVEL CELLS WITHIN SAID ARCHITECTURE. - An apparatus comprising a two or three dimensional array of a plurality of pairs of non-volatile memory (“NVM”) cells coupled to enable program and erase of the NVM cells. The plurality of pairs of NVM cells is electrically connected to word lines and bit lines. Each pair of NVM cells comprises a first memory cell and a second memory cell. The first and second memory cells comprise a first source/drain, a second source/drain, and a control gate. The first source/drain of the first memory cell is connected to one of the bit lines. The second source/drain of the first memory cell is connected to the first source/drain of the second memory cell. The second source/drain of the second memory cell is connected to another one of the bit lines. The control gates of the first and second memory cells are connected to different word lines. | 04-30-2009 |
| 20090109758 | NONVOLATILE MEMORY ARRAY PARTITIONING ARCHITECTURE AND METHOD TO UTILIZE SINGLE LEVEL CELLS AND MULTI LEVEL CELLS WITHIN SAID ARCHITECTURE - A system comprising a program component that programs one or more non-volatile memory (“NVM”) cells of an array of pairs of NVM cells using FN tunneling, an erase component that erases the one or more NVM cells of the array of pairs of NVM cells using FN tunneling, and a read component that reads the one or more NVM cells of the array of pairs of NVM cells. | 04-30-2009 |
| 20090109760 | DETERMINISTIC PROGRAMMING ALGORITHM THAT PROVIDES TIGHTER CELL DISTRIBUTIONS WITH A REDUCED NUMBER OF PROGRAMMING PULSES - Systems and methods for improving the programming of memory devices. A pulse component applies different programming pulses to a memory cell. An analysis component measures values of one or more characteristics of the memory cell as a function of the applied different programming pulses. A computation component computes the applied different programming pulses as a function of the measured values of the one or more characteristics of the memory cell. The analysis component measures one or more values of the one or more characteristics of the memory cell, the computation component computes one or more programming pulses as a function of the one or more measured values of the one or more characteristics of the memory cell, and the pulse component applies the one or more programming pulses to the memory cell. | 04-30-2009 |
| 20090113115 | NON-VOLATILE MEMORY ARRAY PARTITIONING ARCHITECTURE AND METHOD TO UTILIZE SINGLE LEVEL CELLS AND MULTI-LEVEL CELLS WITHIN THE SAME MEMORY - A memory device is disclosed, and includes an array of memory cells and a partitioning system configured to address a first portion of the array in a single level cell mode, and a second portion of the array in a multi-level cell mode. | 04-30-2009 |
| 20090154234 | READING ELECTRONIC MEMORY UTILIZING RELATIONSHIPS BETWEEN CELL STATE DISTRIBUTIONS - Providing distinction between overlapping state distributions of one or more multi cell memory devices is described herein. By way of example, a system can include a calculation component that can perform a mathematical operation on an identified, non-overlapped bit distribution and an overlapped bit distribution associated with the memory cell. Such mathematical operation can produce a resulting distribution that can facilitate identification by an analysis component of at least one overlapped bit distribution associated with cells of the one or more multi cell memory devices. Consequently, read errors associated with overlapped bits of a memory cell device can be mitigated. | 06-18-2009 |
| 20090154260 | SCAN SENSING METHOD THAT IMPROVES SENSING MARGINS - Systems and methods for improving memory cell sensing margins by utilizing an optimal reference stimulus. A stimulus component applies a plurality of different reference stimuli to a plurality of memory cells of a memory device. A sense component senses a characteristic of each memory cell of the plurality of memory cells as a function of the serially applied plurality of different reference stimuli. An analysis component computes an optimal reference stimulus by selecting one of the plurality of different reference stimuli, the one of the plurality of different reference stimuli associated with an absolute minima of number of memory cell characteristics that changed state as a function of the applied plurality of different reference stimuli | 06-18-2009 |
| 20090316481 | READING ELECTRONIC MEMORY UTILIZING RELATIONSHIPS BETWEEN CELL STATE DISTRIBUTIONS - Providing distinction between overlapping state distributions of one or more multi cell memory devices is described herein. By way of example, a system can include a calculation component that can perform a mathematical operation on an identified, non-overlapped bit distribution and an overlapped bit distribution associated with the memory cell. Such mathematical operation can produce a resulting distribution that can facilitate identification by an analysis component of at least one overlapped bit distribution associated with cells of the one or more multi cell memory devices. Consequently, read errors associated with overlapped bits of a memory cell device can be mitigated. | 12-24-2009 |
| 20100122146 | ERROR CORRECTION FOR FLASH MEMORY - Providing for single and multi-bit error correction of electronic memory is described herein. As an example, error correction can be accomplished by establishing a suspect region between bit level distributions of a set of analyzed memory cells. The suspect region can define potential error bits for the distributions. If a bit error is detected for the distributions, error correction can first be applied to the potential error bits in the suspect region. By identifying suspected error bits and limiting initial error correction to such identified bits, complexities involved in applying error correction to all bits of the distributions can be mitigated or avoided, improving efficiency of bit error corrections for electronic memory. | 05-13-2010 |
| 20110080792 | PARALLEL BITLINE NONVOLATILE MEMORY EMPLOYING CHANNEL-BASED PROCESSING TECHNOLOGY - Providing for a new combination of non-volatile memory architecture and memory processing technology is described herein. By way of example, disclosed is a parallel bitline semiconductor architecture coupled with a channel-based processing technology. The channel based processing technology provides fast program/erase times, relatively high density and good scalability. Furthermore, the parallel bitline architecture enables very fast read times comparable with drain-based tunneling processes, achieving a combination of fast program, erase and read times far better than conventional non-volatile memories. | 04-07-2011 |
| 20110122708 | METHOD AND APPARATUS FOR PERFORMING SEMICONDUCTOR MEMORY OPERATIONS - A semiconductor memory device and a method for performing a memory operation in the semiconductor memory device are provided. The semiconductor memory device includes a plurality of predetermined memory arrays, a bitline decoder, and a controller. The controller provides the memory operation signal to the bitline decoder and, after precharging bitlines of the plurality of predetermined memory arrays, performs the memory operation on selected memory cells in the one or more of the plurality of predetermined memory arrays in accordance with the memory operation signal. The bitline decoder includes a plurality of sector select transistors and determines selected ones of the plurality of predetermined memory arrays and selected rows and unselected rows within the selected ones of the plurality of predetermined memory arrays in response to the memory operation signal. The bitline decoder also precharges the bitlines of the plurality of predetermined memory arrays to a first voltage potential then shuts off the sector select transistors of unselected ones of the plurality of predetermined memory arrays and the unselected rows of the selected ones of the plurality of predetermined memory arrays while maintaining the sector select transistors of the selected rows of the selected ones of the plurality of predetermined memory arrays at the first voltage potential prior to the controller performing the memory operation. | 05-26-2011 |
| 20110149630 | HIGH READ SPEED ELECTRONIC MEMORY WITH SERIAL ARRAY TRANSISTORS - Providing a serial array semiconductor architecture achieving fast program, erase and read times is disclosed herein. By way of example, a memory architecture can comprise a serial array of semiconductors coupled to a metal bitline of an electronic memory device at one end of the array, and a gate of a pass transistor at an opposite end of the array. Furthermore, a second metal bitline is coupled to a drain of the pass transistor. A sensing circuit that measures current or voltage at the second metal bitline, which is modulated by a gate potential of the pass transistor, can determine a state of transistors of the serial array. Because of low capacitance of the pass transistor, the serial array can charge or discharge the gate of the pass transistor quickly, resulting in read times that are significantly reduced as compared with conventional serial semiconductor array devices. | 06-23-2011 |
