Disclosed herein is a method for managing of NOP instructions in a microcontroller, the method comprising duplicating all jump instructions causing a NOP instruction to form a new instruction set; inserting an internal NOP instruction into each of the jump instructions; when a jump instruction is executed, executing a subsequent instruction of the new instruction set; and executing the internal NOP instruction when an execution of the subsequent instruction is skipped.

A system-on-a-chip includes a plurality of instruction processors and a hardware block such as a system management unit. The hardware block accesses values of performance counters associated with the plurality of instruction processors and modifies one or more operating points of one or more of the plurality of instruction processors based on comparisons of the instruction arrival rates and the instruction service rates to achieve optimized system metrics.

A data processing apparatus is provided that comprises rename circuitry for performing a register rename stage of a pipeline in respect of a stream of operations. Move elimination circuitry performs a move elimination operation on the stream of operations in which a move operation is eliminated and the register rename stage performs an adjustment of an identity of registers in the stream of operations to compensate for the move operation being eliminated and demotion circuitry reverses or inhibits the adjustment in response to one or more conditions being met.

A disassembler receives instructions and disassembles them into a plurality of separate opcodes. The disassembler creates a table identifying boundaries between each opcode. Each opcode is written to memory in an opcode-by-opcode manner by atomically writing standard blocks of memory. Debug break point opcodes are appended to opcode to create a full block of memory when needed. The block of memory may be thirty-two or sixty-four bits long, for example. Long opcodes may overlap two or more memory blocks. Debug break point opcodes may be appended to a second portion of the long opcode to create a full block of memory. A stream fault interceptor identifies when a requested data page is not available and retrieving the data page.

In a very long instruction word (VLIW) central processing unit instructions are grouped into execute packets that execute in parallel. A constant may be specified or extended by bits in a constant extension instruction in the same execute packet. If an instruction includes an indication of constant extension, the decoder employs bits of a constant extension instruction to extend the constant of an immediate field. Two or more constant extension slots are permitted in each execute packet, each extending constants for a different predetermined subset of functional unit instructions. In an alternative embodiment, more than one functional unit may have constants extended from the same constant extension instruction employing the same extended bits. A long extended constant may be formed using the extension bits of two constant extension instructions.

A processor includes a front end including circuitry to decode instructions from an instruction stream, a data cache unit including circuitry to cache data for the processor, and a binary translator. The binary translator includes circuitry to identify a redundant store in the instruction stream, mark the start and end of a region of the instruction stream with the redundant store, remove the redundant store, and store an amended instruction stream with the redundant store removed.

Techniques for error correction in a processor include detecting an error in first data stored in a register. The method also includes generating an instruction to read the first data stored in the register, where the register is both a source register and a destination register of the instruction. The method further includes transmitting the first data and error correcting code data to an execution unit, where the first data and error correcting code data bypasses an issue queue. The method also includes decoding the instruction and correcting the error to generate corrected data and writing the corrected data to the destination register.

An electronic device includes a processor having a micro-operation queue, multiple scheduler entries, and scheduler compression logic. When a pair of micro-operations in the micro-operation queue is compressible in accordance with one or more compressibility rules, the scheduler compression logic acquires the pair of micro-operations from the micro-operation queue and stores information from both micro-operations of the pair of micro-operations into different portions in a single scheduler entry. In this way, the scheduler compression logic compresses the pair of micro-operations into the single scheduler entry.

Described herein are a system and methods for identifying fields and tasks (e.g., agricultural fields and tasks). In one embodiment, system includes a display device to display a representation of one or more agricultural fields with geo-referenced boundaries and to receive one or more inputs for identifying at least one agricultural field with agricultural field identification information. A processing system is communicatively coupled to the display device. The processing system is configured to automatically transmit raw data including measurement data and location component data to the display device in response to a machine or an implement starting and to automatically identify location component data of the raw data. The processing system is further configured to automatically assign raw data to at least one agricultural field.

Various example embodiments for supporting message processing are presented. Various example embodiments for supporting message processing are configured to support message processing by a processor. Various example embodiments for supporting message processing by a processor are configured to support message processing by the processor based on dynamic control over processor instruction sets of the processor.