Title: Quiz: Entanglement And Quantum Interference Quiz
Course: Quantum_Computing > Section: Module5

Q: What is quantum entanglement?
- A phenomenon where particles are independent of each other
- A phenomenon where particles become interconnected
- A classical physics concept about particle separation
- A method for classical computing
A: A phenomenon where particles become interconnected

Q: Who famously described quantum entanglement as "spooky action at a distance"?
- Niels Bohr
- Albert Einstein
- Richard Feynman
- Max Planck
A: Albert Einstein

Q: In which field is quantum entanglement primarily applied to achieve exponentially faster computations?
- Classical computing
- Quantum cryptography
- Quantum teleportation
- Quantum computing
A: Quantum computing

Q: How does quantum cryptography utilize quantum entanglement?
- To create random numbers
- To establish secure communication channels
- To enhance classical encryption methods
- To transmit classical information
A: To establish secure communication channels

Q: What is one observable effect of quantum interference?
- It allows particles to become independent
- It leads to the creation of interference patterns
- It eliminates the need for quantum states
- It simplifies classical algorithms
A: It leads to the creation of interference patterns

Q: Why is understanding quantum entanglement and interference important for students?
- It helps them appreciate classical physics
- It prepares them for careers in quantum computing and related fields
- It is not relevant to modern technology
- It simplifies the study of classical mechanics
A: It prepares them for careers in quantum computing and related fields

Q: What challenge is associated with implementing quantum technologies?
- High costs of classical computers
- Error rates in quantum computations
- Lack of interest in quantum mechanics
- Simplicity of quantum algorithms
A: Error rates in quantum computations

Q: How does project-based learning enhance the understanding of quantum entanglement?
- By focusing solely on theoretical concepts
- By providing hands-on activities and real-world applications
- By avoiding mathematical formalism
- By limiting discussions to classical physics
A: By providing hands-on activities and real-world applications