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Solving the B-SAT Problem Using Quantum Computing: Smaller Is Sometimes Better.
Ahmad Bennakhi1, Gregory T Byrd1, Paul Franzon1
1Department of Electrical and Computer Engineering, North Carolina State University, Raleigh, NC 27695, USA.
This study explores how universal gate quantum computers solve Boolean satisfiability problems using Grover's algorithm. Results show configuration variations impact performance, with a notable IBM quantum processor behavior observed.
Area of Science:
- Quantum Computing
- Computational Complexity
Background:
- Boolean satisfiability (B-SAT) is a fundamental problem in computer science.
- Quantum computing offers potential speedups for complex problems like B-SAT.
Purpose of the Study:
- To evaluate the effectiveness of universal gate quantum computers for B-SAT.
- To investigate the impact of different quantum computing configurations on B-SAT problem-solving.
Main Methods:
- Utilized Grover's search algorithm on universal gate quantum computers.
- Experimented with variations in the number of shots, qubit mapping, and quantum processors.
- Conducted a specific experiment on IBM quantum processors to observe unique behaviors.
Main Results:
- Different configurations (shots, qubit mapping, processor choice) affect quantum B-SAT solution effectiveness.
- Observed peculiar performance characteristics of IBM quantum processors at specific shot counts.
Conclusions:
- Configuration tuning is crucial for optimizing quantum B-SAT solvers.
- Further investigation into quantum hardware-specific behaviors is warranted for efficient quantum algorithm implementation.
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