A) A classical bit used in regular computing. B) A software language for quantum programming. C) A type of encryption algorithm. D) A basic unit of quantum information.
A) Quantum superposition allows qubits to be in multiple states simultaneously. B) Classical superposition involves physical waves. C) Quantum superposition only applies to photon states. D) Classical superposition is more stable.
A) SHA-256 B) AES C) Diffie-Hellman D) RSA
A) Cryptography designed to be secure against quantum attacks. B) Cryptography used after a successful quantum encryption. C) Cryptography that only quantum computers can decrypt. D) Cryptography that runs on quantum networks.
A) Exponential speedup for some algorithms. B) Linear speedup for all algorithms. C) Faster at processing large datasets. D) Better at solving purely mathematical problems.
A) Grover's algorithm B) Deutsch's algorithm C) Shor's algorithm D) Bernstein-Vazirani algorithm
A) Quantum entanglement B) Quantum interference C) Quantum superposition D) Quantum parallelism
A) By relying on hardware-based encryption solutions. B) By using classical encryption algorithms with quantum networks. C) By continuously changing encryption keys at a fast pace. D) By leveraging the principles of quantum mechanics for key exchange. |