Abstract: An apparatus includes a fuse array and a stores. The fuse array is programmed with compressed configuration data for a plurality of cores. The stores is coupled to the plurality of cores, and includes a plurality of sub-stores that each correspond to each of the plurality of cores, where one of the plurality of cores accesses the semiconductor fuse array upon power-up/reset to read and decompress the compressed configuration data, and to store a plurality of decompressed configuration data sets for one or more cache memories within the each of the plurality of cores in the plurality of sub-stores. Each of the plurality of cores has sleep logic. The sleep logic is configured to subsequently access a corresponding one of the each of the plurality of sub-stores to retrieve and employ the decompressed configuration data sets to initialize the one or more caches following a power gating event.

Abstract: An apparatus including a plurality of cores and a fuse array. The plurality of cores is disposed on a die. The fuse array is disposed on the die and is coupled to each of the plurality of cores, where the fuse array includes a first plurality of semiconductor fuses and a second plurality of semiconductor fuses. The first plurality of semiconductor fuses is programmed with compressed configuration data for the each of the plurality of cores. The second plurality of semiconductor fuses is programmed with core designation data that associates some of the compressed configuration data with one of the plurality of cores, where the one of the plurality of cores accesses and decompresses the some of the compressed configuration data upon power-up/reset, for initialization of elements within the one of the plurality of cores.

Abstract: An apparatus includes a semiconductor fuse array, disposed on a die, into which is programmed configuration data. The semiconductor fuse array has a first plurality of semiconductor fuses and a second plurality of semiconductor fuses. The first plurality of semiconductor fuses is configured to store the configuration data in an encoded and compressed format. The second plurality of semiconductor fuses is configured to store first fuse correction data that indicates locations and values corresponding to a first one or more fuses within the first plurality of fuses whose states are to be changed from that which was previously stored.

Abstract: An apparatus is contemplated for storing and providing configuration data to an integrated circuit device, the apparatus has a fuse array and a plurality of cores. The fuse array is disposed on a die. The fuse array has a first plurality of semiconductor fuses and a second plurality of semiconductor fuses. The plurality of cores is disposed on the die, where each of the plurality of cores is coupled to the fuse array. The each of the plurality of cores includes array control, configured to access the first and second pluralities of fuses, and configured to process first states of the first plurality of semiconductor fuses and second states of the second plurality of semiconductor fuses according to contents of a configuration data register.

Abstract: An apparatus is contemplated for storing and decompressing configuration data in a multi-core microprocessor. The apparatus includes a shared fuse array and a plurality of microprocessor cores. The shared fuse array is disposed on a die and comprises a plurality of semiconductor fuses programmed with compressed configuration data. The plurality of microprocessor cores is also disposed on the die, where each of the plurality of microprocessor cores is coupled to the shared fuse array and is configured to access all of the compressed configuration data during power-up/reset, for initialization of elements within the each of the plurality of cores. The each of the plurality of cores have a reset controller that is configured to decompress the all of the compressed configuration data, and to distribute decompressed configuration data to initialize the elements.

Abstract: An apparatus includes a semiconductor fuse array, a cache memory, and a plurality of cores. The semiconductor fuse array is disposed on a die, into which is programmed the configuration data. The semiconductor fuse array has a first plurality of semiconductor fuses that is configured to store compressed cache correction data. The a cache memory is disposed on the die. The plurality of cores is disposed on the die, where each of the plurality of cores is coupled to the semiconductor fuse array and the cache memory, and is configured to access the semiconductor fuse array upon power-up/reset, to decompress the compressed cache correction data, and to distribute decompressed cached correction data to initialize the cache memory.

Abstract: An apparatus includes a plurality of cores and a fuse array. The plurality of cores is disposed on a die. The fuse array is disposed on the die and is coupled to each of the plurality of cores, where the fuse array includes a plurality of semiconductor fuses that are programmed with compressed configuration data for the each of the plurality of cores, and where the each of the plurality of cores accesses and decompresses all of the compressed configuration data upon power-up/reset, for initialization of elements within the each of the plurality of cores.

Abstract: An apparatus has a fuse array, a device programmer, and a plurality of cores. The fuse array is disposed on a die, where the fuse array comprises a plurality of semiconductor fuses. The device programmer is coupled to the fuse array and is configured to access the configuration data, to compress the configuration data to yield compressed configuration data, and to program the fuse array with the compressed configuration data. The plurality of cores is disposed separately on the die and is coupled to the fuse array, where each of the plurality of cores accesses and decompresses all of the compressed configuration data upon power-up/reset, for initialization of elements within the each of the plurality of cores.

Abstract: An apparatus includes a fuse array, a random access memory (RAM), and a plurality of cores. The fuse array is disposed on a die, where the fuse array has a plurality of semiconductor fuses programmed with compressed configuration data. The RAM is disposed separately on the die. The plurality of cores is disposed separately on the die, where each of the plurality of cores is coupled to the fuse array and the RAM, and where the each of the plurality of cores accesses either the fuse array or the RAM upon power-up/reset as indicated by contents of a load data register to obtain the compressed configuration data.

Abstract: An apparatus includes a device programmer, coupled to a plurality of semiconductor fuses disposed on a die, configured to program the plurality of semiconductor fuses with compressed configuration data for a plurality of cores disposed separately on the die. The device programmer has a virtual fuse array and a compressor. The virtual fuse array is configured to store the configuration data for the plurality of cores. The configuration data includes a plurality of data types. The compressor is coupled to the virtual fuse array and is configured to read the virtual fuse array, and is configured to compress the configuration data by employing a plurality of compression algorithms to generate the compressed configuration data, where the plurality of compression algorithms correspond to the plurality of data types.

Abstract: An apparatus is contemplated for storing and providing configuration data to a microprocessor. The apparatus has a core, disposed on a die, and a fuse array, disposed on the die and coupled to the core, where the fuse array comprises a plurality of semiconductor fuses programmed with compressed configuration data for the core, where the compressed configuration data is generated by compression of data within a virtual fuse array that corresponds to the core, and where the core accesses and decompresses the compressed configuration data upon power-up/reset, for initialization of elements within the core.

Abstract: An apparatus includes a device programmer, coupled to a plurality of semiconductor fuses disposed on a die, configured to program the plurality of semiconductor fuses with compressed configuration data for a plurality of cores disposed separately on the die. The device programmer has a virtual fuse array and a compressor. The virtual fuse array is configured to store the configuration data for the plurality of cores. The configuration data includes a plurality of data types. The compressor is coupled to the virtual fuse array and is configured to read the virtual fuse array, and is configured to compress the configuration data by employing a plurality of compression algorithms to generate the compressed configuration data, where the plurality of compression algorithms correspond to the plurality of data types.

Abstract: An apparatus is contemplated for storing and providing configuration data to an integrated circuit device, the apparatus has a fuse array and a plurality of cores. The fuse array is disposed on a die. The fuse array has a first plurality of semiconductor fuses and a second plurality of semiconductor fuses. The plurality of cores is disposed on the die, where each of the plurality of cores is coupled to the fuse array. The each of the plurality of cores includes array control, configured to access the first and second pluralities of fuses, and configured to process first states of the first plurality of semiconductor fuses and second states of the second plurality of semiconductor fuses according to contents of a configuration data register.

Abstract: An apparatus has a shared fuse array and a plurality of microprocessor cores. The shared fuse array is disposed on a die, the shared fuse array having a plurality of semiconductor fuses programmed with compressed configuration data and error checking and correction (ECC) codes. The plurality of microprocessor cores is disposed on the die, where each of the plurality of microprocessor cores is coupled to the shared fuse array and is configured to access all of the compressed configuration data during power-up/reset, for initialization of elements within the each of the plurality of cores. The each of the plurality of cores includes a reset controller that is configured to access the compressed configuration data and the ECC codes, to correct errors resulting in corrected compressed configuration data, to decompress all of the corrected compressed configuration data, and to distribute decompressed configuration data to initialize the elements.

Abstract: An apparatus includes a semiconductor fuse array, a cache memory, and a plurality of cores. The semiconductor fuse array is disposed on a die, into which is programmed the configuration data. The semiconductor fuse array has a first plurality of semiconductor fuses that is configured to store compressed cache correction data. The a cache memory is disposed on the die. The plurality of cores is disposed on the die, where each of the plurality of cores is coupled to the semiconductor fuse array and the cache memory, and is configured to access the semiconductor fuse array upon power-up/reset, to decompress the compressed cache correction data, and to distribute decompressed cached correction data to initialize the cache memory.

Abstract: An apparatus including a plurality of cores and a fuse array. The plurality of cores is disposed on a die. The fuse array is disposed on the die and is coupled to each of the plurality of cores, where the fuse array includes a first plurality of semiconductor fuses and a second plurality of semiconductor fuses. The first plurality of semiconductor fuses is programmed with compressed configuration data for the each of the plurality of cores. The second plurality of semiconductor fuses is programmed with core designation data that associates some of the compressed configuration data with one of the plurality of cores, where the one of the plurality of cores accesses and decompresses the some of the compressed configuration data upon power-up/reset, for initialization of elements within the one of the plurality of cores.

Abstract: An apparatus has a fuse array, a device programmer, and a plurality of cores. The fuse array is disposed on a die, where the fuse array comprises a plurality of semiconductor fuses. The device programmer is coupled to the fuse array and is configured to access the configuration data, to compress the configuration data to yield compressed configuration data, and to program the fuse array with the compressed configuration data. The plurality of cores is disposed separately on the die and is coupled to the fuse array, where each of the plurality of cores accesses and decompresses all of the compressed configuration data upon power-up/reset, for initialization of elements within the each of the plurality of cores.

Abstract: An apparatus is contemplated for storing and decompressing configuration data in a multi-core microprocessor. The apparatus includes a shared fuse array and a plurality of microprocessor cores. The shared fuse array is disposed on a die and comprises a plurality of semiconductor fuses programmed with compressed configuration data. The plurality of microprocessor cores is also disposed on the die, where each of the plurality of microprocessor cores is coupled to the shared fuse array and is configured to access all of the compressed configuration data during power-up/reset, for initialization of elements within the each of the plurality of cores. The each of the plurality of cores have a reset controller that is configured to decompress the all of the compressed configuration data, and to distribute decompressed configuration data to initialize the elements.

Abstract: An apparatus has a fuse array, a cache memory, and cores. The fuse array is disposed on a die, into which is programmed the configuration data. The fuse array includes a first plurality of fuses and a second plurality of fuses. The first plurality of fuses stores compressed cache correction data. The second plurality of fuses stores compressed fuse correction data that indicates locations and values corresponding to one or more fuses within the first plurality of fuses whose states are to be changed from that which was previously stored. The cores are disposed on the die, where each of the cores accesses the fuse array upon power-up/reset. The each of the cores includes a cache fuses decompressor that changes the states according to the locations and the values, decompresses the compressed cache correction data, and distributes decompressed cached correction data to initialize the cache memory.

Abstract: An apparatus is contemplated for storing and providing configuration data to a microprocessor. The apparatus has a core, disposed on a die, and a fuse array, disposed on the die and coupled to the core, where the fuse array comprises a plurality of semiconductor fuses programmed with compressed configuration data for the core, where the compressed configuration data is generated by compression of data within a virtual fuse array that corresponds to the core, and where the core accesses and decompresses the compressed configuration data upon power-up/reset, for initialization of elements within the core.