Embodiments of the invention are directed to an architecture modifier for intelligent node transfer and review processing. The engine collects user activity data from IoT devices and non-IoT applications to identify user activity and stores user workstation availability metrics. Upon receiving a request for review and consensus, the engine develops various user data routing configuration and schema based on live data feed for identification of nodes for transaction consensus and immediate review posting without any delay architectural delay.

A register file includes a substrate, a plurality of entries, and a plurality of read ports. Each entry includes a corresponding subset of a plurality of memory cells defined on the substrate. Each read port includes a plurality of access elements defined on the substrate. Each access element is associated with a particular common bit position of each of the entries. A plurality of entry access groups are disposed in adjacent columns on the substrate. Each entry access group is associated with a corresponding one of the plurality of entries and includes the access elements for all of the read ports for the corresponding entry.

A computer system, processor, and method for processing information is disclosed that includes at least one computer processor; a main register file associated with the at least one processor, the main register file having a plurality of entries for storing data, one or more write ports to write data to the main register file entries, and one or more read ports to read data from the main register file entries; one or more execution units including a dense math execution unit; and at least one accumulator register file having a plurality of entries for storing data. The results of the dense math execution unit in an aspect are written to the accumulator register file, preferably to the same accumulator register file entry multiple times, and the data from the accumulator register file is written to the main register file.

In one example, a method includes responsive to receiving, by a processing unit, one or more instructions requesting that a first value be moved from a first general purpose register (GPR) to a third GPR and that a second value be moved from a second GPR to a fourth GPR, copying, by an initial logic unit and during a first clock cycle, the first value to an initial pipeline register, copying, by the initial logic and during a second clock cycle, the second value to the initial pipeline register, copying, by a final logic unit and during a third clock cycle, the first value from a final pipeline register to the third GPR, and copying, by the final logic unit and during a fourth clock cycle, the second value from the final pipeline register to the fourth GPR.

Circuitry operating under a floating-point mode or a fixed-point mode includes a first circuit accepting a first data input and generating a first data output. The first circuit includes a first arithmetic element accepting the first data input, a plurality of pipeline registers disposed in connection with the first arithmetic element, and a cascade register that outputs the first data output. The circuitry further includes a second circuit accepting a second data input and generating a second data output. The second circuit is cascaded to the first circuit such that the first data output is connected to the second data input via the cascade register. The cascade register is selectively bypassed when the first circuit is operated under the fixed-point mode.

A processor core includes even and odd execution slices each having a register file. The slices are each configured to perform operations specified in a first set of instructions on data from its respective register file, and together configured to perform operations specified in a second set of instructions on data stored across both register files. During utilization, the processor receives a first instruction of the first set specifying an operation, a target register, and a source register. Next, a second instruction upon which content of the source register depends is identified as being of the second set. In response, the first instruction is dispatched to the even slice. In accordance with the operation specified in the first instruction, the even slice uses content of the source register in its register file to produce a result. Copies of the result are written to the target register in both register files.

Systems and methods are provided for managing access to registers. In one embodiment, a system may include a processor and a plurality of registers. The processor and the plurality of registers may be integrated into a single device, or may be in separate devices. The plurality of registers may include a first set of registers that are directly accessible by the processor, and a second set of registers that are not directly accessible by the processor. The second set of registers may, however, be accessed indirectly by the processor via the first set of registers. In one embodiment, the first set of registers may include a register for selecting a register bank from the second set of registers, and a register for selecting a particular address within the register bank, to allow indirect access by the processor to the registers of the second set.

Disclosed circuits and methods involve a first register configured to store of a first convolutional neural network (CNN) instruction during processing of the first CNN instruction and a second register configured to store a second CNN instruction during processing of the second CNN instruction. Each of a plurality of address generation circuits is configured to generate one or more addresses in response to an input CNN instruction. Control circuitry is configured to select one of the first CNN instruction or the second CNN instruction as input to the address generation circuits.

Fine-grained enablement at sub-function granularity. An instruction encapsulates different sub-functions of a function, in which the sub-functions use different sets of registers of a composite register file, and therefore, different sets of functional units. At least one operand of the instruction specifies which set of registers, and therefore, which set of functional units, is to be used in performing the sub-function. The instruction can perform various functions (e.g., move, load, etc.) and a sub-function of the function specifies the type of function (e.g., move-floating point; move-vector; etc.).

A data path block circuit is disclosed. The data path block circuit includes a data path circuit having logic circuits, each configured to perform a data path operation to generate a result based on first and second operands. The data path block circuit also includes a first operand multiplexer, having inputs, each connected to one of a first register file, including a quantity of read and write ports, and a second register file, including a different quantity of read and write ports. The data path block circuit also includes a second operand multiplexer, having inputs, each connected to one of the first register file and the second register file. At least one of the first and second operand multiplexers includes a data input connected to the first register file. At least one of the first and second operand multiplexers includes a data input connected to the second register file.