Mediatek Corporation

Mediatek Incorporation

Li-Chun Tu

Tsung-Huang Chen

Ping-Sheng Chen

Chia-Hao Yang

Pao-Ching Tseng

Tzu-Chieh Lin

Chao-Yi Wu

Hong-Ching Chen

Chih-Hsiang Hsiao

Chih-Ching Chen

Li-Lien Lin

Chun-Yu Lin

Hung-Cheng Kuo

Chao-Long Tsai

Yi-Chuan Chen

Sung-Yang Wu

Yuan-Ting Wu

Chun-Ying Chiang

Wen-Chi Chao

Hong-ching Chen

Cheng-Te Chuang

Chien-Chung Wu

Chi-Wei Peng

Kun-chieh Yang

Yeow-Chyi Chen

Chun-Chieh Shih

Ping-Cheng Sung

A wireless communication device including an integrated processing circuit, a first memory and a testing circuit is provided. The integrated processing circuit includes a processing unit capable of processing a wireless communication signal and a radio frequency (RF) unit capable of performing a conversion between a radio frequency (RF) signal and a baseband signal, wherein the wireless communication signal is one of the RF signal and the baseband signal. The first memory is coupled to the integrated processing circuit. The first memory is capable of storing data used by the processing unit. The testing circuit is coupled to the first memory, and is capable of testing the first memory for determining if the first memory is an effective memory. The RF unit is put in a first package, the first memory is put in a second package, and the first package and the second package are packaged in a single device.

Wireless communication device

A wireless communication device including an integrated processing circuit, a first memory and a testing circuit is provided. The integrated processing circuit includes a processing unit capable of processing a wireless communication signal and a radio frequency (RF) unit capable of performing a conversion between a radio frequency (RF) signal and a baseband signal, wherein the wireless communication signal is one of the RF signal and the baseband signal. The first memory is coupled to the integrated processing circuit. The first memory is capable of storing data used by the processing unit. The testing circuit is coupled to the first memory, and is capable of testing the first memory for determining if the first memory is an effective memory. The RF unit and the first memory are placed in a single module.

A low-power wearable controller and associated control method are provided. The wearable controller includes: a processing unit; a memory unit; a peripheral interface unit including a plurality of peripheral interfaces; and a control module, coupled to the processing unit, the memory unit and the peripheral interface unit, wherein the control module is enabled when the wearable controller is operated in a first operation mode, and the control module is disabled when the wearable controller is operated in a second operation mode.

Low-power mechanism for wearable controller and associated control method

A media peripheral interface for communication between a processor and a peripheral device includes a clock port, a plurality of data I/Os, and a data strobe port. The clock port is operative to transfer a clock signal to the peripheral device. The data I/Os are provided for command transfer to the peripheral device and for data transfer to and from the peripheral device. The data strobe port is operative to transfer a data strobe signal to or from the peripheral device according to an instruction that the processor issues to the peripheral device. According to the clock signal, command information transferred via the data I/Os is captured. According to rising edges and falling edges of the data strobe signal, data transferred via the data I/Os are captured.

Media peripheral interface, electronic device with media peripheral interface, and communication method between processor and peripheral device

A wireless communication device including an integrated processing circuit and a first memory is provided. The integrated processing circuit includes a processing unit capable of processing a wireless communication signal and a radio frequency (RF) unit capable of performing a conversion between a radio frequency (RF) signal and a baseband signal, wherein the wireless communication signal is one of the RF signal and the baseband signal. The first memory is coupled to the integrated processing circuit. The first memory is capable of storing data used by the processing unit, wherein the integrated processing circuit and the first memory are packaged in a single semiconductor package.

A wireless communication device including an integrated processing circuit and a first memory is provided. The integrated processing circuit includes a processing unit capable of processing a wireless communication signal and a radio frequency (RF) unit capable of performing a conversion between a radio frequency (RF) signal and a baseband signal, wherein the wireless communication signal is one or more of the RF signal and the baseband signal. The first memory is coupled to the integrated processing circuit. The first memory is capable of storing data used by the processing unit, wherein the RF unit and the first memory are packaged in a single semiconductor device.

The invention provides a nonvolatile memory controller. In one embodiment, the nonvolatile memory controller receives new data for writing a nonvolatile memory from a host, and comprises a signature calculating circuit, a signature buffer, a signature comparison circuit, a data comparison circuit, and a nonvolatile memory interface circuit. The signature calculating circuit calculates a first signature according to the new data. The signature buffer outputs a second signature corresponding to old data stored in the nonvolatile memory, wherein the old data has the same logical address as that of the new data. The signature comparison circuit determines whether the first signature is identical to the second signature. The nonvolatile memory interface circuit writes the new data to the nonvolatile memory when the first signature is determined to be different from the second signature by the signature comparison circuit.

Nonvolatile memory controller and method for writing data to nonvolatile memory

A flash memory device includes a memory array and a memory control circuit. The memory array includes memory modules. Each memory module is located in a memory channel and includes a predetermined number of memory cells. The memory control circuit is coupled to the memory array via an address latch enable (ALE) pin and a command latch enable (CLE) pin. The ALE pin and the CLE pin are coupled to all of the memory cells and shared by all of the memory cells in the memory array.

Flash memory devices and methods for controlling a flash memory device

One exemplary storage controller of controlling data access of a storage device includes an encoding circuit and a control circuit. The encoding circuit is programmable to support a plurality of different finite fields, and implemented for generating encoded data according to an adjustable finite field setting. The control circuit is implemented for controlling the adjustable finite field setting of the encoding circuit and recording data into the storage device according to the encoded data. Another exemplary storage controller of controlling data access of a storage device includes a decoding circuit and a control circuit. The decoding circuit is programmable to support a plurality of different finite fields, and implemented for generating decoded data according to an adjustable finite field setting. The control circuit is implemented for reading data from the storage device to obtain readout data and controlling the adjustable finite field setting of the decoding circuit.

Storage controller with encoding/decoding circuit programmable to support different ECC requirements and related method thereof

Methods for updating and recovering user data of a non-volatile memory array such as a flash memory are disclosed. An indication for indicating a mapping relationship for a logical address is established when original user data of the logical addresses is updated into new user data. The indication records new pointers, which record the mapping relationships between logical addresses and physical addresses storing the new user data of the logical addresses. Alternatively, the indication records memory positions of the non-volatile memory array which are defined as designated memory positions and a sequence for using these designated memory positions.

Data updating and recovering methods for a non-volatile memory array

A memory sharing method for at least a functional module and a target module is disclosed. The functional module includes at least a static random access memory (SRAM), the memory sharing method includes the steps of calculating a memory capacity of the functional module; if a total memory capacity of a module group satisfies a memory capacity requirement of the target module, allocating the SRAM of the module group, wherein the module group comprises at least one functional module; and accessing the SRAM of the functional module of the module group by utilizing the target module.

Memory sharing method for sharing SRAM in an SOC device

A testing system includes an integrated circuit having an analog design under test and a processor; an digital-to-analog converter (DAC), coupled to the analog design under test and the processor, for converting a digital testing sequence output of the processor into an analog testing sequence fed into the analog design under test; a analog-to-digital converter (ADC), coupled to the analog design under test and the processor, for converting an analog testing response of the analog design under test into a digital testing response fed into the processor; and an external tester, coupled to the processor of the integrated circuit, for sequentially outputting a program sequence to the processor; wherein the processor executes the program sequence without un-predictable conditional jump to get a testing result of the testing system and then outputs the testing result to the external tester.

Testing system and related testing method for an analog design under test

A method is provided for simultaneously loading and executing program code in a circuit system. The circuit system includes a plurality of memory devices, a microprocessor, and a loading circuit. The method includes dividing the program code into a plurality of code divisions and utilizing the microprocessor to execute at least a code division when the loading circuit loads any other code division into a memory device of the plurality of memory devices.

Memory management method for simultaneously loading and executing program codes

A non-volatile memory is installed in an electronic device. A method for updating a firmware code stored in a non-volatile memory includes: providing an updating control unit having a command set; providing the updating control unit with a trigger signal to enable at least one command of the command set; and utilizing the updating control unit to read/write the non-volatile memory according to the enabled command to update the firmware code. Wherein each command of the command set is a memory read/write command. The method further includes updating at least one command of the command set in real time. The present invention further provides an electronic device corresponding to the method.

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Hsinchu, Taiwan

Li-Chun Tu