Abstract: A high-performance instruction cache method based on extracting instruction information and store in a track table. The method enables reading of all levels of cache, including the last level cache, without performing tag matching. The method enables the content of the track table addressing directly instruction memories in both track cache or in set associative organization. Further, the method includes a memory replacement method using a track table, a first memory containing multiple rows instruction blocks, and a correlation table. The correlation table records source addresses of rows indexing a target row and the lower level memory address of the target row. During replacement of a first memory row, the lower level memory address of the target row replaces the address of the target row in the source row of the track table, and therefore preserve the indexing relationship recorded in the track table despite the replacement.

Abstract: A memory device includes a first memory array, a first read port, a second read port, and a control input port. The first memory array contains a plurality of memory cells arranged in an array configuration. The first read port is configured to read first data from a single memory cell during a single read cycle, and the second read port is configured to read second data from a group of memory cells controlled by a common word line. Further, the control input is configured to receive a mode signal indicating a functional mode for the memory device including a first read mode and a second read mode. When the mode signal indicates the first read mode, the first read port is used to read the first data. When the mode signal indicates the second read mode, the first read port is used to read out the first data and the second read port is used to read the second data.

Abstract: A digital system is provided. The digital system includes an execution unit, a level-zero (L0) memory, and an address generation unit. The execution unit is coupled to a data memory containing data to be used in operations of the execution unit. The L0 memory is coupled between the execution unit and the data memory and configured to receive a part of the data in the data memory. The address generation unit is configured to generate address information for addressing the L0 memory. Further, the L0 memory provides at least two operands of a single instruction from the part of the data to the execution unit directly, without loading the at least two operands into one or more registers, using the address information from the address generation unit.

Abstract: A digital system includes a processor core and a cache control unit. The processor core can be coupled to a first memory containing data and a second memory with a faster speed than the first memory, and is configured to execute a segment of instructions having at least one instruction accessing the data from the second memory using a base register. The cache control unit is configured to be coupled to the first memory, the second memory, and the processor core to fill the data from the first memory to the second memory before the processor core executes the instruction accessing the data, and is further configured to examine the segment of instructions to extract instruction information containing at least data access instruction information and last register updating instruction information and to create a track corresponding to the segment of instructions based on the extracted instruction information.

Abstract: A digital system is provided for high-performance cache systems. The digital system includes a processor core and a cache control unit. The processor core is capable of being coupled to a first memory containing executable instructions and a second memory with a faster speed than the first memory. Further, the processor core is configured to execute one or more instructions of the executable instructions from the second memory. The cache control unit is configured to be couple to the first memory, the second memory, and the processor core to fill at least the one or more instructions from the first memory to the second memory before the processor core executes the one or more instructions.

Abstract: A digital system is provided. The digital system includes an execution unit, a level-zero (L0) memory, and an address generation unit. The execution unit is coupled to a data memory containing data to be used in operations of the execution unit. The L0 memory is coupled between the execution unit and the data memory and configured to receive a part of the data in the data memory. The address generation unit is configured to generate address information for addressing the L0 memory. Further, the L0 memory provides at least two operands of a single instruction from the part of the data to the execution unit directly, without loading the at least two operands into one or more registers, using the address information from the address generation unit.

Abstract: A digital system is provided for high-performance cache systems. The digital system includes a processor core and a cache control unit. The processor core is capable of being coupled to a first memory containing executable instructions and a second memory with a faster speed than the first memory. Further, the processor core is configured to execute one or more instructions of the executable instructions from the second memory. The cache control unit is configured to be couple to the first memory, the second memory, and the processor core to fill at least the one or more instructions from the first memory to the second memory before the processor core executes the one or more instructions.

Abstract: A digital system is provided for high-performance cache systems. The digital system includes a processor core and a cache control unit. The processor core is capable of being coupled to a first memory containing executable instructions and a second memory with a faster speed than the first memory. Further, the processor core is configured to execute one or more instructions of the executable instructions from the second memory. The cache control unit is configured to be couple to the first memory, the second memory, and the processor core to fill at least the one or more instructions from the first memory to the second memory before the processor core executes the one or more instructions.

Abstract: A digital system is provided for high-performance cache systems. The digital system includes a processor core and a cache control unit. The processor core is capable of being coupled to a first memory containing executable instructions and a second memory with a faster speed than the first memory. Further, the processor core is configured to execute one or more instructions of the executable instructions from the second memory. The cache control unit is configured to be couple to the first memory, the second memory, and the processor core to fill at least the one or more instructions from the first memory to the second memory before the processor core executes the one or more instructions.

Abstract: A digital system includes a processor core and a cache control unit. The processor core can be coupled to a first memory containing data and a second memory with a faster speed than the first memory, and is configured to execute a segment of instructions having at least one instruction accessing the data from the second memory using a base register. The cache control unit is configured to be coupled to the first memory, the second memory, and the processor core to fill the data from the first memory to the second memory before the processor core executes the instruction accessing the data, and is further configured to examine the segment of instructions to extract instruction information containing at least data access instruction information and last register updating instruction information and to create a track corresponding to the segment of instructions based on the extracted instruction information.

Abstract: A reconfigurable data processing platform is disclosed. The reconfigurable data processing platform includes a reconfigurable universal data processing module, a configuration memory, and a reconfiguration control unit. The reconfigurable universal data processing module contains a plurality of basic units each capable of being configured to perform a unit of at least one of a logic operation and an arithmetic operation. The configuration memory is coupled to the reconfigurable universal data processing module to provide configuration information to be used to configure the plurality of basic units. Further, the reconfiguration control unit is coupled to the reconfigurable universal data processing module and the configuration memory to provide control signals for configuration of the plurality of basic units.

Abstract: A digital system is provided. The digital system includes an execution unit, a level-zero (L0) memory, and an address generation unit. The execution unit is coupled to a data memory containing data to be used in operations of the execution unit. The L0 memory is coupled between the execution unit and the data memory and configured to receive a part of the data in the data memory. The address generation unit is configured to generate address information for addressing the L0 memory. Further, the L0 memory provides at least two operands of a single instruction from the part of the data to the execution unit directly, without loading the at least two operands into one or more registers, using the address information from the address generation unit.

Abstract: A reconfigurable processor is provided. The reconfigurable processor includes a plurality of functional blocks configured to perform corresponding operations. The reconfigurable processor also includes one or more data inputs coupled to the plurality of functional blocks to provide one or more operands to the plurality of functional blocks, and one or more data outputs to provide at least one result outputted from the plurality of functional blocks.

Abstract: A memory device includes a first memory array, a first read port, a second read port, and a control input port. The first memory array contains a plurality of memory cells arranged in an array configuration. The first read port is configured to read first data from a single memory cell during a single read cycle, and the second read port is configured to read second data from a group of memory cells controlled by a common word line. Further, the control input is configured to receive a mode signal indicating a functional mode for the memory device including a first read mode and a second read mode. When the mode signal indicates the first read mode, the first read port is used to read the first data. When the mode signal indicates the second read mode, the first read port is used to read out the first data and the second read port is used to read the second data.

Abstract: A reconfigurable data processing platform is disclosed. The reconfigurable data processing platform includes a reconfigurable universal data processing module, a configuration memory, and a reconfiguration control unit. The reconfigurable universal data processing module contains a plurality of basic units each capable of being configured to perform a unit of at least one of a logic operation and an arithmetic operation. The configuration memory is coupled to the reconfigurable universal data processing module to provide configuration information to be used to configure the plurality of basic units. Further, the reconfiguration control unit is coupled to the reconfigurable universal data processing module and the configuration memory to provide control signals for configuration of the plurality of basic units.

Abstract: A digital system is provided for high-performance cache systems. The digital system includes a processor core and a cache control unit. The processor core is capable of being coupled to a first memory containing executable instructions and a second memory with a faster speed than the first memory. Further, the processor core is configured to execute one or more instructions of the executable instructions from the second memory.