Abstract: A memory integrated circuit has an array of nonvolatile memory cells, bit lines accessing the array of nonvolatile memory cells, and bit line discharge circuitry. The bit lines have multiple discharge paths for a bit line at a same time, during a program operation.

Abstract: A memory circuit with a word line driver and control circuitry is disclosed. The word line driver receives a first voltage reference signal, a second voltage reference signal, and an input signal. The word line driver has an output coupled to a word line. The control circuitry is configured to deselect the word line by applying the input signal to the input of the word line driver. For example, in a program operation the word line is deselected to indicate that the word line is not programmed, and another word line is selected to be programmed. During an operation in which the word line is deselected and another word line is selected, the word line discharges through both of a first p-type transistor and a first n-type transistor of the word line driver.

Abstract: Provided is a MLC (Multi-level cell) memory device, comprising: a memory array, including a plurality of groups each storing a plurality of bits; and an inverse bit storage section, storing a first inverse bit data including a plurality of inverse bits, the plurality of bits in the same group in the memory array being related to a respective inverse bit.

Abstract: A memory element in which the temperature coefficient of a memory cell substantially matches the temperature coefficient of a reference cell and tuning either the temperature coefficient of a memory cell to substantially match the temperature coefficient of the reference cell provides for improved precision of sensing or reading memory element states, particularly so as to minimize the affect of temperature variations on reading and sensing states.

Abstract: A memory integrated circuit has an array of nonvolatile memory cells, bit lines accessing the array of nonvolatile memory cells, and bit line discharge circuitry. The bit lines have multiple discharge paths for a bit line at a same time, during a program operation.

Abstract: The clock circuit of an integrated circuit operates with variations such as temperature, ground noise, and power noise. Various aspects of an improved clock integrated circuit address one or more of the variations in temperature, ground noise, and power noise.

Abstract: Source-side sensing techniques described herein determine the data value stored in a memory cell based on the difference in current between the read current from the source terminal of the memory cell and a sink current drawn from the read current. The sink current is drawn in response to the magnitude of a reference current provided by a reference current source such as a reference cell.

Abstract: A memory array is shown, including memory cells with source and drain doped regions, and global bit lines coupled to the doped regions via select transistors. The connections of the select transistors are configured such that the respective loading capacitances of two global bit lines respectively coupled to the source and the drain of a memory cell to be read do not vary with the memory cell to be read.

Abstract: A program method for a multi-level cell (MLC) flash memory is provided. The memory array includes a plurality of pages and a plurality of paired pages, which correspond to the respective pages. The program method includes the following steps. Firstly, a program address command is obtained. Next, whether the program address command corresponding to any one of the paired pages is determined. When the program address command corresponds to a first paired page, which corresponds to a first page among the pages, among the paired pages, data stored in the first page to a non-volatile memory are copied. After that, the first paired page is programmed.

Abstract: A method of programming data stored in a memory, which comprises a number of user-defined blocks, a number of manufacture-defined blocks, and an information block, includes the following steps. A programming address pointing to a user-defined block in the memory and programming data is obtained. After that, it is determined whether there is an empty manufacture-defined block among a number of user-defined blocks in the memory. If so, an information block in the memory is programmed to store the programming address and a replacing address pointing to the empty manufacture-defined block. The empty manufacture-defined block is programmed to store the programming data.

Abstract: A sense amplifier includes a first transistor, a second transistor, an output circuit, and a shielding circuit. The first transistor has a gate bias established by a cell current, and the second transistor has a gate bias established by a reference current. The output circuit is coupled to the first and the second transistor. The shielding circuit is located between the second transistor and the output circuit.

Abstract: The clock circuit of an integrated circuit operates with variations such as temperature, ground noise, and power noise. Various aspects of an improved clock integrated circuit address one or more of the variations in temperature, ground noise, and power noise.

Abstract: The clock circuit of an integrated circuit operates with variations such as temperature, ground noise, and power noise. Various aspects of an improved clock integrated circuit address one or more of the variations in temperature, ground noise, and power noise.

Abstract: The clock circuit of an integrated circuit operates with variations such as temperature, ground noise, and power noise. Various aspects of an improved clock integrated circuit address one or more of the variations in temperature, ground noise, and power noise.

Abstract: Source-side sensing techniques described herein determine the data value stored in a memory cell based on the difference in current between the read current from the source terminal of the memory cell and a sink current drawn from the read current. The sink current is drawn in response to the magnitude of a reference current provided by a reference current source such as a reference cell.

Abstract: A sense amplifier comprises a sense node, a reference node, a memory input stage circuit, a reference input stage circuit, an output stage circuit, and a shielding circuit. The memory input stage circuit comprises first input node for maintaining a first sense voltage established by a cell current and establishes a second sense voltage on the sense node in response to the first sense voltage. The reference input stage circuit comprises an output node and a second input node, which is for maintaining a first reference voltage established by the reference current and establishes a second reference voltage on the reference node in response to the first reference voltage. The output stage circuit obtains a sense result in response to the second reference voltage and the second sense voltage. The first shielding circuit shields the output node from being interfered with the second reference voltage on the reference node.

Abstract: A memory and an operating method thereof are provided therein. When searching a boundary of a threshold voltage distribution of the memory, data errors resulted from tail bits of the memory would be corrected. Therefore, a sensing window could be broader, and the boundary of the threshold voltage distribution could be determined precisely.

Abstract: Source-side sensing techniques described herein determine the data value stored in a memory cell based on the difference in current between the read current from the source terminal of the memory cell and a sink current drawn from the read current. The sink current is drawn in response to a magnitude of an operating voltage between first and second nodes. During a first time interval, the operating voltage is set in response to a magnitude of the reference current using a feedback path. During a second time interval following the first time interval, the operating voltage is held independent of the feedback path. The data value stored in the memory cell is determined based on a difference in current between the read current and the sink current during the second time interval.

Abstract: A voltage regulating method applied to a memory to regulate a word line voltage corresponding to a set of memory cells of the memory includes the following steps. Firstly, a first value, which is for indicating an amount of data having a specific data value in a set of written data, is counted, wherein the set of written data is written into the set of memory cells. Next, a second value, which is for indicating an amount of data having the specific data value in a set of read data, is counted, wherein the set of read data is obtained by reading the set of written data. Then, a regulating voltage is determined according to a difference between the first and second values. After that, the word line voltage is regulated to be a sum of the word line voltage and the regulating voltage.

Abstract: Source-side sensing techniques described herein determine the data value stored in a memory cell based on the difference in current between the read current from the source terminal of the memory cell and a sink current drawn from the read current. The sink current is drawn in response to the magnitude of a reference current provided by a reference current source such as a reference cell.