Quantum mechanics has already shaped technology significantly, and the exploration of massive entanglement in quantum systems will lead to advancements that classical computers cannot achieve.

Quantum mechanics and quantum entanglement are becoming very real as we begin to access a complicated configuration space to perform useful calculations.

Quantum error correction may play a crucial role in understanding the geometry of space-time, suggesting that entanglement is fundamental to the structure of the universe.

The approach to scalability in quantum computing involves creating small, efficient quantum modules that can be linked together, rather than trying to scale up a single large quantum computer, which presents numerous challenges.

The challenge in quantum computing lies in scaling; while achieving high fidelity with a small number of qubits is possible, creating a robust system that consistently performs well with a larger number of qubits is a significant engineering problem.

Quantum-enabled discovery could revolutionize fields like drug discovery by allowing quantum computers to predict molecular behaviors, significantly speeding up the process of synthesizing complex molecules without relying on trial and error.

Quantum computers will likely excel in understanding and inventing new materials and chemical compounds, which are fundamentally quantum physics problems.

Quantum entanglement is a key property that allows information to be stored in the correlations between parts of a quantum system, making it difficult to access that information by examining individual parts.

The resolution to the information paradox may involve allowing non-local connections between particles through wormholes while preserving quantum mechanics, suggesting that gravity emerges from a quantum description and isn't fundamental but rather a result of deeper quantum mechanics.