A novel reversible synthesis of array multiplier
Dipak Kumar Kole, Hafizur Rahaman, Debesh Kumar Das, Somnath Rakshit, Sraboni Mondal
Abstract
Dipak Kumar Kole, Hafizur Rahaman, Debesh Kumar Das, Somnath Rakshit, Sraboni Mondal
Abstract
Quantum computation has seen immense progress which has popularised logic synthesis with the help of reversible circuits. A reversible circuit is implemented with multiple special types of quantum gates, known as k-CNOT gates. Ion trapping or nuclear magnetic resonance are newer technologies required to emulate quantum gates. This paper presents a reversible synthesis of array multipliers based on Booths Algorithm implemented with reversible k-CNOT gates. Our work has been simulated using the online quantum simulator davyw and its features have been compared with existing reversible array multipliers.
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Quantum computation has seen immense progress which has popularised logic synthesis with the help of reversible circuits. A reversible circuit is implemented with multiple special types of quantum gates, known as k-CNOT gates. Ion trapping or nuclear magnetic resonance are newer technologies required to emulate quantum gates. This paper presents a reversible synthesis of array multipliers based on Booths Algorithm implemented with reversible k-CNOT gates. Our work has been simulated using the online quantum simulator davyw and its features have been compared with existing reversible array multipliers.
Key concepts: Controlled NOT gate, Quantum computer, Quantum gate, Reversible computing, Multiplier (economics), Quantum circuit, Logic gate, Computer science