Abstract: A die-level electrical parameter extraction method includes: obtaining electrical parameters of a plurality of transistor types; obtaining measurement results of a plurality of logic blocks; estimating a mapping relationship between the electrical parameters of the plurality of transistor types and the measurement results of the plurality of logic blocks; and regarding a specific die of a wafer, obtaining die-level measurement of the plurality of logic blocks, and generating die-level electrical parameters of the plurality of transistor types according to the mapping relationship and the die-level measurement results.

Abstract: A method for performing system power control within an electronic device and an associated apparatus are provided. The method includes the steps of: utilizing a power consumption index generator positioned in a specific subsystem to generate a power consumption index corresponding to the specific subsystem, where the electronic device includes a plurality of subsystems, and the specific subsystem is one of the plurality of subsystems; and triggering a power limiter protection operation for the electronic device according to the power consumption index. For example, the power consumption index corresponding to the specific subsystem may represent a power consumption value of the specific subsystem, and the method may further include: comparing the power consumption value of the specific subsystem with a peak power threshold to determine whether the power consumed by the specific subsystem reaches the peak power threshold to generate a determining result, for triggering the power limiter protection operation.

Abstract: A method for performing system power control within an electronic device and an associated apparatus are provided. The method includes the steps of: utilizing a power consumption index generator positioned in a specific subsystem to generate a power consumption index corresponding to the specific subsystem, where the electronic device includes a plurality of subsystems, and the specific subsystem is one of the plurality of subsystems; and triggering a power limiter protection operation for the electronic device according to the power consumption index. For example, the power consumption index corresponding to the specific subsystem may represent a power consumption value of the specific subsystem, and the method may further include: comparing the power consumption value of the specific subsystem with a peak power threshold to determine whether the power consumed by the specific subsystem reaches the peak power threshold to generate a determining result, for triggering the power limiter protection operation.

Abstract: A controller coupled to a plurality of hardware modules is arranged for determining activities of at least two of the hardware modules in real time, and determining a voltage and a frequency for one of the hardware modules according to the activities of the at least two of the hardware modules.

Abstract: A method for performing system power control within an electronic device and an associated apparatus are provided. The method includes the steps of: utilizing a power consumption index generator positioned in a specific subsystem to generate a power consumption index corresponding to the specific subsystem, where the electronic device includes a plurality of subsystems, and the specific subsystem is one of the plurality of subsystems; and triggering a power limiter protection operation for the electronic device according to the power consumption index. For example, the power consumption index corresponding to the specific subsystem may represent a power consumption value of the specific subsystem, and the method may further include: comparing the power consumption value of the specific subsystem with a peak power threshold to determine whether the power consumed by the specific subsystem reaches the peak power threshold to generate a determining result, for triggering the power limiter protection operation.

Abstract: The invention is a method of calculating a key equation polynomial. The key equation comprises an errata locator polynomial and an errata evaluator polynomial. The errata locator polynomial decomposes to a plurality of coefficients. Some or all of the plurality of coefficients are formed by adding up decomposed data. The method comprises a coefficient calculation procedure for the errata locator polynomial of updating at least two coefficients, or two decomposed data of the coefficient calculation procedure, or a combination of the above in a single clock cycle simultaneously to get the errata locator polynomial.

Abstract: According to an embodiment of the present invention, a shared processor architecture in a receiver system is disclosed. The receiver system is configured to have a first functional stage and a second functional stage for processing information carried by signals from a first transmitter system and a second transmitter system respectively. The first functional stage and the second functional stage correspond to an identical signal processing function. The shared processor architecture includes a first processor, allocated to the first functional stage and the second functional stage, for processing an output generated from the first functional stage or an output from the second functional stage.

Abstract: A decoding method for booting from a NAND Flash including a booting page storing a plurality of copies of NAND booting information and a plurality of corresponding parities, each parity generated by an predetermined error correction code (ECC) bit number. The decoding method includes reading the booting page, for obtaining a plurality of configuration data and a plurality of ECC data, and performing a voting scheme and an ECC decoding process on the plurality of configuration data and the plurality of ECC data, for obtaining the NAND booting information. Besides, an encoding method for encoding such booting information is disclosed the same.

Abstract: A method for decoding multiword information comprises steps (a) to (e). In step (a), a multiword information cluster, e.g., ECC, including high protective codewords, e.g., BIS, and low protective codewords, e.g., LDC, is provided. In step (b), the high and low protective codewords are stored into a first memory, e.g., DRAM. In step (c), the high protective codewords are decoded to generate high protective word erasure indicators showing whether decoding errors occur. In step (d), the high protective word erasure indicators are stored into a second memory, e.g., SRAM. In step (e), the low protective codewords are decoded. In the meanwhile, an erasure bit for a low protective codeword is marked by finding high protective codewords close to the low protective codeword in the multiword information cluster and looking up the high protective word erasure indicators of the high protective codewords close to the low protective codeword.

Abstract: A method for determining a bit boundary of a repetition-coded signal including bits each having a plurality of epochs includes (a) counting the epochs repeatedly from an initial number to a predetermined number in a predetermined time, (b) sensing sign changes in the epochs, (c) recording each sensed sign change with a weighting function to a corresponding counting number of the epoch, and (d) determining the bit boundary according to a result of step (c).

Abstract: A decoding method for booting from a NAND Flash including a booting page storing a plurality of copies of NAND booting information and a plurality of corresponding parities, each parity generated by an predetermined error correction code (ECC) bit number. The decoding method includes reading the booting page, for obtaining a plurality of configuration data and a plurality of ECC data, and performing a voting scheme and an ECC decoding process on the plurality of configuration data and the plurality of ECC data, for obtaining the NAND booting information. Besides, an encoding method for encoding such booting information is disclosed the same.

Abstract: An integrated apparatus for multi-standard optical media includes a compact disc/digital versatile disc (CD/DVD) processor, a high-definition DVD (HDDVD) processor and a Blu-ray disc (BD) processor; a memory unit connected to the CD/DVD processor, the HDDVD processor and the BD processor to provide a storage resource; and a shared error correction code (ECC) engine for encoding or decoding the CD/DVD data stream, the HDDVD data stream and the BD data stream. Therein, the ECC engine further has a syndrome/parity generator to encode the data stream or to obtain the syndrome information from the data stream; and an erasure generator to obtain the possible error position information from the data stream. Thereby, the complexity and cost of the integrated apparatus can be reduced.

Abstract: A data buffering method used when performing a read operation on an optical storage medium is disclosed. After a first data unit having an unidentifiable and temporarily undeducible ID address is reproduced through the read operation, the method starts storing the first data unit and subsequently reproduced data units into a buffer memory in turn. After a second ID address of a second data unit of the subsequently reproduced data units is identified, the method deduces a target memory address of the buffer memory according to the second ID address and a target ID address. A buffer start pointer is then set according to the deduced target memory address.

Abstract: An integrated apparatus for multi-standard optical media includes a compact disc/digital versatile disc (CD/DVD) processor, a high-definition DVD (HDDVD) processor and a Blu-ray disc (BD) processor; a memory unit connected to the CD/DVD processor, the HDDVD processor and the BD processor to provide a storage resource; and a shared error correction code (ECC) engine for encoding or decoding the CD/DVD data stream, the HDDVD data stream and the BD data stream. Therein, the ECC engine further has a syndrome/parity generator to encode the data stream or to obtain the syndrome information from the data stream; and an erasure generator to obtain the possible error position information from the data stream. Thereby, the complexity and cost of the integrated apparatus can be reduced.

Abstract: An integrated apparatus for multi-standard optical media includes a compact disc/digital versatile disc (CD/DVD) processor, a high-definition DVD (HDDVD) processor and a Blu-ray disc (BD) processor; a memory unit connected to the CD/DVD processor, the HDDVD processor and the BD processor to provide a storage resource; and a shared error correction code (ECC) engine for encoding or decoding the CD/DVD data stream, the HDDVD data stream and the BD data stream. Therein, the ECC engine further has a syndrome/parity generator to encode the data stream or to obtain the syndrome information from the data stream; and an erasure generator to obtain the possible error position information from the data stream. Thereby, the complexity and cost of the integrated apparatus can be reduced.

Abstract: According to an embodiment of the present invention, a shared processor architecture in a receiver system is disclosed. The receiver system is configured to have a first functional stage and a second functional stage for processing information carried by signals from a first transmitter system and a second transmitter system respectively. The first functional stage and the second functional stage correspond to an identical signal processing function. The shared processor architecture includes a first processor, allocated to the first functional stage and the second functional stage, for processing an output generated from the first functional stage or an output from the second functional stage.

Abstract: A method for buffering data when reading an optical disc is disclosed in the present invention. The method includes providing a memory page with a plurality of memory spaces corresponding to a memory space matrix with M rows×N columns, reading data stored in the optical disc to generate a block to be decoded, selecting M rows×N columns of data from the block to be decoded as a sub-block to be decoded, and storing the M rows of data of the sub-block to be decoded into the M rows of memory spaces of the memory space matrix respectively.

Abstract: A method for decoding multiword information comprises steps (a) to (e). In step (a), a multiword information cluster, e.g., ECC, including high protective codewords, e.g., BIS, and low protective codewords, e.g., LDC, is provided. In step (b), the high and low protective codewords are stored into a first memory, e.g., DRAM. In step (c), the high protective codewords are decoded to generate high protective word erasure indicators showing whether decoding errors occur. In step (d), the high protective word erasure indicators are stored into a second memory, e.g., SRAM. In step (e), the low protective codewords are decoded. In the meanwhile, an erasure bit for a low protective codeword is marked by finding high protective codewords close to the low protective codeword in the multiword information cluster and looking up the high protective word erasure indicators of the high protective codewords close to the low protective codeword.

Abstract: A method for determining a bit boundary of a repetition-coded signal including bits each having a plurality of epochs includes (a) counting the epochs repeatedly from an initial number to a predetermined number in a predetermined time, (b) sensing sign changes in the epochs, (c) recording each sensed sign change with a weighting function to a corresponding counting number of the epoch, and (d) determining the bit boundary according to a result of step (c).

Abstract: A method for computing parity characters for a codeword of a cyclic code successively generates a sum of an output value and a respective message character of a first message section adjacent to parity characters within a first block. The method then successively multiplies a respective sum by corresponding coefficients of a generator polynomial to generate at least one product. The method further successively multiplies a respective message character of every message section other than the first message section by coefficients of a corresponding shift polynomial to generate a plurality of products, before finally, successively summing corresponding products to generate the output value.