Andere Kunden interessierten sich auch für
![ASIC Implementation of Low Power FP-AU using Reversible Logic]( "ASIC Implementation of Low Power FP-AU using Reversible Logic")
ASIC Implementation of Low Power FP-AU using Reversible Logic23,99 €![Design of Magnitude Comparator Using Reversible Logic Gates]( "Design of Magnitude Comparator Using Reversible Logic Gates")
Design of Magnitude Comparator Using Reversible Logic Gates26,99 €![Towards a Design Flow for Reversible Logic]( "Towards a Design Flow for Reversible Logic")
Towards a Design Flow for Reversible Logic74,99 €![Towards a Design Flow for Reversible Logic]( "Towards a Design Flow for Reversible Logic")
Towards a Design Flow for Reversible Logic74,99 €![Low power BIST for VLSI Digital Circuits]( "Low power BIST for VLSI Digital Circuits")
Low power BIST for VLSI Digital Circuits55,99 €![Design and Implementation of Reversible Vedic Division by Direct Flag]( "Design and Implementation of Reversible Vedic Division by Direct Flag")
Design and Implementation of Reversible Vedic Division by Direct Flag29,99 €![Design and Testability of Diverse Reversible Error Control Circuits]( "Design and Testability of Diverse Reversible Error Control Circuits")
Design and Testability of Diverse Reversible Error Control Circuits32,99 €
Modern Computers are faster, more compact and more complex than their predecessors at the cost of increased power consumption. Energy from the inputs not transferred to the outputs is dissipated as heat and in irreversible circuits, while erasing a single bit of information, according to Landauer's Principle the bit energy is dissipated as heat. So, some information about the inputs is erased every time a logic operation is performed in irreversible manner. Reversible logic is a scheme where this energy dissipation due to irreversibility is minimized or sometimes almost nullified by utilizing the bit energy of previous results. In this book the concept has been illustrated and applied to construct Ultra Low Power Arithmetic Logic Circuits.