Both embedded systems and general-purpose computers have their uses. Embedded systems, in contrast to personal computers, can run just one piece of software at a time. Embedded systems are inoperable because they lack a programmable interface. The processing speed of general-purpose systems must be higher than that of embedded systems because of the latter's runtime limitations.

Both embedded systems and general-purpose computers have their uses. Embedded systems, in contrast to personal computers, can run just one piece of software at a time. Embedded systems are inoperable because they lack a programmable interface. The processing speed of general-purpose systems must be higher than that of embedded systems because of the latter's runtime limitations.

Name: Both embedded systems and general-purpose computers have their uses. E
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Description: Both embedded systems and general-purpose computers have their uses. Embedded systems, in contrast to personal computers, can run just one piece of software at a time. Embedded systems are inoperable because they lack a programmable interface. The pr

Systems Architecture

7th Edition

ISBN:9781305080195

Author:Stephen D. Burd

Publisher:Stephen D. Burd

Chapter4: Processor Technology And Architecture

Section: Chapter Questions

Problem 1RP

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In contrast to general-purpose computers, embedded systems serve a specific function. Embedded devices, in contrast to personal computers, can only execute a single program at a time. Unfortunately, embedded systems are not programmable. Unlike embedded systems, which may be slow because of their limited runtime, general-purpose systems can take their time.
There is a distinction between general-purpose computers and embedded systems. Unlike PCs, embedded systems can only simultaneously execute a single piece of software. Embedded systems are incapable of being programmed. General-purpose systems need a faster processing speed than embedded systems, which are constrained by runtime.
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