The ENIAC was a decimal machine, where a register was represented by a ring of 10 vacuum tubes. At any time, only one vacuum tube was in the ON state, representing one of the 10 digits. Assuming that ENIAC had the capability to have multiple vacuum tubes in the ON and OFF state simultaneously, Compare how Little’s and Amdahl’s law will work on it?

The ENIAC was a decimal machine, where a register was represented by a ring of 10 vacuum tubes. At any time, only one vacuum tube was in the ON state, representing one of the 10 digits. Assuming that ENIAC had the capability to have multiple vacuum tubes in the ON and OFF state simultaneously, Compare how Little’s and Amdahl’s law will work on it?

Systems Architecture

7th Edition

ISBN:9781305080195

Author:Stephen D. Burd

Publisher:Stephen D. Burd

Chapter3: Data Representation

Section: Chapter Questions

Problem 27VE: Data represented in ________ is transmitted accurately between computer equipment from different...

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Data represented in ________ is transmitted accurately between computer equipment from different manufacturers if each computer’s CPU represents real numbers by using an IEEE standard notation.
The ENIAC was a decimal machine, where a register was represented by a ring of 10 vacuum tubes. At any time, only one vacuum tube was in the ON state, representing one of the 10 digits. Assuming that ENIAC had the capability to have multiple vacuum tubes in the ON and OFF state simultaneously, Compare how Little’s and Amdahl’s law will work on it?
Q: The ENIAC was a decimal machine, where a register was represented by a ring of 10 vacuum tubes. At any time, only one vacuum tube was in the ON state, representing one of the 10 digits. Assuming that ENIAC had the capability to have multiple vacuum tubes in the ON and OFF state simultaneously, Compare how Little’s and Amdahl’s law will work on it? Note: this question is related from computer architecture subject kindly solved this correctly and completly.
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