A MISD machine is an example of a systolic array, a kind of array. Data processing units are organized into a "wavefront" in a systolic array. All of these components do not need the use of a program counter since execution is initiated when new data is received. Lock-step computation is achieved in a clocked-systolic array, where each unit completes its alternating calculation and communication phases in the same clock cycle.

A systolic array, which is a kind of array, is an example of a MISD machine. A systolic array is a pipeline network or "wavefront" of data processing units structured as a network. Because execution is triggered by the reception of fresh data, none of these components need the usage of a program counter. Each unit in a clocked systolic array computes in "lock-step," with each unit completing alternate calculation and communication phases in a single clock cycle.

The machines that use MISD are systolic arrays. A systolic array is a "wavefront" or data processing pipeline. Because data triggers execution, these sections don't need programme counters and may function independently. When all of the clocks in a systolic array are synchronized, the CPUs are able to do calculations in what is called "lock-step."

An example of a MISD machine might be something like a systolic array, which is a kind of array. A pipeline network or "wavefront" of data processing units that is organised as a network might be referred to as a systolic array. Since the receipt of new data is what initiates execution, none of these components need the employment of a program counter in order to function properly. Each individual unit in a timed systolic array computes in "lock-step," meaning that within the course of a single clock cycle, each individual unit finishes alternating stages of computation and communication.