Abstract:
An instruction prediction method and apparatus, a system, and a computer-readable storage medium relate to the field of computer technologies. The method includes: a processor obtains a plurality of to-be-executed first IBs, where any first IB includes at least one instruction to be sequentially executed, and the at least one instruction includes one branch instruction; searches, based on branch instructions included in the plurality of first IBs, at least one candidate execution path for a candidate execution path corresponding to the plurality of first IBs, where any candidate execution path indicates a jump relationship between a plurality of second IBs, and a jump relationship indicated by the candidate execution path corresponding to the plurality of first IBs includes a jump relationship between the plurality of first IBs; and predicts, based on the jump relationship between the first IBs, a next instruction corresponding to a branch instruction in each first D3.
Abstract:
This application provides a circuit, a chip, and an electronic device. The circuit includes a first processor and a first processing module connected to the first processor. The first processing module includes a second processor connected to a first memory. A transmission latency generated when the second processor performs read and write operations on the first memory is less than a transmission latency generated when the first processor communicates with the first processing module. Because the transmission latency generated when the second processor performs the read and write operations on the first memory is less than the transmission latency generated when the first processor communicates with the first processing module, a cost of a transmission latency of data in a bus can be reduced.
Abstract:
The present invention provides an instruction processing method of a network processor and a network processor. The method includes: when executes a pre-added combined function call instruction, adding an address of its next instruction to a stack top of a first stack; judging, according to the combined function call instruction, whether an enable flag of each additional feature is enabled, and if enabled, adding a function entry address corresponding to an additional feature to the stack top of the first stack; and after finishing judging all enable flags, popping a function entry address in the first stack, and executing a function corresponding to a popped function entry address until the address of the next instruction is popped. In the present invention, only one judgment jump instruction needs to be added to a main line procedure to implement function call of enabled additional features, which saves an instruction execution cycle.