Let us suppose, for the sake of simplicity, that each instruction on a RISC processor is processed in 2 microseconds and that an I/O device can only wait for an interrupt to be handled for a maximum of 1 millisecond before it is serviced. When interruptions are turned off, the number of instructions that may be performed is limited.

There are various sorts of arrays, with "systolic array" being one of them. A systolic array is a networked group of data processing devices. Since the receipt of fresh data initiates execution, these components do not need a programmed counter. Using lock-step computing, each node in a timed systolic array alternately conducts calculations and communications inside a single clock cycle.

The overlapping register windows are responsible for the RISC architecture's superior performance; the smaller instruction set has no bearing on this. Justification of the assertion

Why is it necessary for RISC computers to make use of registers while carrying out operations?

A 16-bit timer is driven by a 48 MHz bus clock. The timer has TOP register which holds the maximum value of the timer count (i.e. the timer resets after reaching TOP). What value of TOP is needed (in hex) to acheive a timer period as close to 1.06112 ms as possible? 1

How much time is required, taking into account the delay of interrupts, to switch between distinct contexts?

The excellent performance of the RISC architecture is due to the overlapping register windows; it is unrelated to the reduced instruction set. Justification for the assertion

This inquiry pertains to the distinctions between hardware interrupts and software interrupts, as well as their respective applications?

Computer science Discuss briefly the types of interrupts, and with one practical example each explain how interrupts

There are several hypotheses that attempt to explain the superior performance of interrupt-driven systems compared to that of non-interrupted ones.