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International Journal of Computer Applications

QMPROM: Quantum Technology for Multivalued Qubit Storage Using Programmable Read Only Memory

Tamanna Tabassum, Fatema Akter

Published Dec 6, 2024• 0 citations
Publisher

Abstract

Compared to traditional multivalued computing systems, multivalued quantum computing offers more processing power and uniqueness thanks to its combination of theoretical computer science and quantum physics.It uses quantum mechanics and the collective features of quantum states, such as superposition with entanglement, and interference, to accomplish some calculations with unprecedented computational speed.When dealing with these intricate issues, quantum algorithms adopt a novel strategy: they generate multidimensional spaces from which the patterns connecting distinct data points arise.These algorithms could effectively address complex mathematical problems, generate secure codes that are difficult to crack, and predict interactions among multiple particles in chemical reactions.They also refer to memory devices, a general term for integrated circuits that can be programmed in a lab to carry out intricate functions.Quantum computers outperform traditional Turing machines by coherent superposition of states.Large photonic quantum processing systems would be possible with the help of quantum memories since they would be capable of effectively modifying, buffering, and adjusting the timing of photonic signals.While qubits can only be used as input states in certain types of computers, quantum computing allows for the development of new computer types that have higher storage capacities despite the slower performance of regular programmable read-only memory (PROM).The design of multivalued quantum-based PROM is a key concern in order to produce affordable, durable, high-capacity, reliable, and energy-efficient memory systems.This study presents the construction of a multivalued PROM architecture based on quantum mechanics, utilizing algorithms for multiple valued quantum ternary operations.

DOI
10.5120/ijca2024924193

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